15,325 research outputs found
Tuber qujingense S. P. Wan 2021, sp. nov.
<i>Tuber qujingense</i> S. P. Wan, <i>sp. nov.</i> (Fig. 3) <p>MycoBank: MB 839733</p> <p> Typification: CHINA. Yunnan Province, Huize County (18.103°E, 23.26°N), in humic soil under a pure <i>Pinus armandii</i> forest, at about 2400 m, 12 August 2016, <i>wsp721</i>, HKAS 95823 (GenBank Acc. No.: ITS = KX904885, LSU = KY 013659).</p> <p> Diagnosis: <i>Tuber qujingense</i> differs from related species by its greyish white ascomata, brown snowflake-shaped gleba, prosenchymatous peridium, fusiform ascospores and 1–4 spored asci.</p> <p>Etymology: Refers to the location of the type collection.</p> <p> Description: <i>Ascoma</i> 2.5 cm in diam, subglobose or irregular, greyish white when fresh, becoming brown when dried. <i>Peridium</i> 200–500 µm thick, smooth to pubescent, one layer, prosenchymatous, composed of big, subglobose to subangular cells, (1–) 2–33 (–34.5) × (1–) 1.5–22 (–33) µm, light earthy yellow. <i>Gleba</i> solid, brownish purple when mature, marbled with white veins, composed of hyaline, interwoven, thin-walled hyphae, 1.5–6 µm, and cylindrical, inflated hyphae 2.8–50 × 2.8–43 µm. <i>Dermatocystidia or setae</i>, straight or bent, obtuse or apiculate at the tip, up to 110 µm long, 6.5 µm in diam, septate, hyaline to whitish. <i>Asci</i> (40–) 51–80 × (30–) 31–60 µm, globose to subglobose, pyriform, ellipsoid or irregular, hyaline, sessile or with a short stalk, thin-walled 1–2 µm thick, 1–4 spored. <i>Ascospores</i>, fusiform, ellipsoid, sometimes broadly ellipsoid, subglobose, hyaline when young, becoming brown at maturity; excluding the alveolate-reticulate ornamentation, in 1-spored asci (35–)37–48(–50) × (23–) 25–30(–32) µm (Q = 1.45–1.65), in 2-spored (22–) 28–40(–41) × (14–) 18-27 µm (Q = 1.41–1.7), in 3-spored (20–)3 8–18(–20) × 15–19(– 24) µm (Q = 1.23–1.75), and in 4-spored (17–) 20–34(–36) × 14–21(–22) µm (Q = 1.14–1.72); reticulum with 3–10 meshes along the spore length and 3–8 across. The alveolar walls up to 4.5–11 µm tall.</p> <p> <i>Distribution and habitat</i>: Hypogeous, in soil under pure stand of <i>P. armandii</i> in Yunnan Province, China. Known only from China.</p>Published as part of <i>Wan, Shanping, Liu, Jianwei, Huang, Lanlan, Qin, Xiaomin, Liu, Wei & Yu, Fuqiang, 2021, Tuber qujingense and T. songlu, two new species from Yunnan, China, pp. 248-256 in Phytotaxa 527 (4)</i> on pages 251-252, DOI: 10.11646/phytotaxa.527.4.2, <a href="http://zenodo.org/record/5766179">http://zenodo.org/record/5766179</a>
Tuber songlu S. P. Wan 2021, sp. nov.
<i>Tuber songlu</i> S.P. Wan, <i>sp. nov.</i> (Fig. 4) <p>MycoBank: MB 839734</p> <p> Typification: CHINA. Yunnan Province, Huize County (29.103°E, 25.56°N), in humic soil under a pure <i>Pinus armandii</i> forest, at about 2415 m, 14 August 2016, <i>wsp695</i>, HKAS 95771 (GenBank Acc. No.: ITS = KX904883, LSU = KY 013656).</p> <p> Diagnosis: <i>Tuber songlu</i> differs from other species by its whitish ascomata, dense spine-like dermatocystidia, ellipsoid ascospores and 1–4 spored asci.</p> <p> <i>Etymology</i>: Refers to the local name of the fungus.</p> <p> Description: <i>Ascomata</i> 1–2 cm in diam, globose to subglobose or irregular, white, light reddish brown when fresh, becoming brown when dried. <i>Peridium</i> 130–500 µm thick, densely pubescent, one layer, prosenchymatous, composed of subglobose to subangular cells, (1–) 1.5–18(–23) × (1–) 1.5–7(–8.5) µm, hyaline. <i>Gleba</i> solid, brown when mature, marbled with brownish yellow veins, composed of hyaline, interwoven, thin-walled cylindrical hyphae, 1.5–8.5 µm broad at the septa, and interwoven, inflated hyphae 2–8.5 µm broad. <i>Dermatocystidia</i>, straight or bent, obtuse or apiculate at the tip, up to 230 µm long, 7 µm in diam, multiseptate, hyaline to whitish. <i>Asci</i> (63–) 72–96 × 54–75 (–81) µm, globose to subglobose, pyriform, ellipsoid or irregular, hyaline, sessile or with a short stalk, thin-walled 1–2 µm thick, 1–4 spored. <i>Ascospores</i>, ellipsoid, sometimes broadly ellipsoid, subglobose, hyaline when young, becoming brown at maturity; excluding their alveolate-reticulate ornamentation, in 1-spored asci (41–) 42.5–51.5 (–56) × (26.5–) 32.5–40 (–41) µm (Q = 1.10–1.70), in 2-spored (22–) 24–42 (–46) × (18–) 19–34 µm (Q = 1.10–1.51), in 3-spored (20–) 26–33 (–35) × 19 (–21)–29 (–30) µm (Q = 1.13–1.24), and in 4-spored (19–) 20–27.5 (–29) × 15–17 (–27) µm (Q = 1.1–1.2); reticulum with 3–8 meshes along the spore length and 3–8 across. The alveolar walls up to 1–7 µm tall.</p> <p> <i>Distribution and habitat</i>: Hypogeous, in soil under a pure forest of <i>Pinus armandii</i> in Yunnan Province, China. Known only from China.</p> <p> <i>Other material examined</i>: CHINA. Yunnan Province, Province, Huize County, in soil under a pure forest of <i>P. armandii</i>, December 2016, <i>wsp701</i>, HKAS 95777 (GenBank Acc. No.: ITS = KX904884, LSU = KY 013657); <i>wsp749</i>, HKAS 95851 (GenBank Acc. No.: ITS = KX904886, LSU = KY 013658).</p>Published as part of <i>Wan, Shanping, Liu, Jianwei, Huang, Lanlan, Qin, Xiaomin, Liu, Wei & Yu, Fuqiang, 2021, Tuber qujingense and T. songlu, two new species from Yunnan, China, pp. 248-256 in Phytotaxa 527 (4)</i> on pages 253-254, DOI: 10.11646/phytotaxa.527.4.2, <a href="http://zenodo.org/record/5766179">http://zenodo.org/record/5766179</a>
Towards an Intelligent and Satellite-Integrated SD-WAN: A High-Performance and Availability-Aware Approach
Software-Defined Wide Area Networks (SD-WANs) provide flexibility and cost-efficiency but still face significant challenges in guaranteeing high availability and consistent performance, particularly when utilizing diverse internet access networks, especially if best-effort like broadband connectivity. Furthermore, reliance on centralized controllers can introduce bottlenecks and single points of failure. This paper outlines a PhD research roadmap aimed at developing a resilient, performant, and extensible SD-WAN framework. The proposed research starts with robust modeling of service-oriented availability considering control plane impacts and quality of service requirements. This will guide us through an availability-aware SD-WAN modular architecture with the function of simplifying the development and test of new features such as: strategies to enhance edge autonomy by reducing real-time controller dependency; integration of predictive awareness tailored to specific internet access networks as LEO satellite based; and experimenting advanced monitoring for intelligent and reactive edge-based traffic engineering. We present the research context, state-of-the-art limitations, core research questions, the methodology combining modeling, simulation, and prototype development, and the expected contributions towards next-generation SD-WAN architectures suitable for research and demanding enterprise applications
Measurement of the mass difference m(D-s(+))-m(D+) at CDF II
We present a measurement of the mass difference m(D-s(+))-m(D+), where both the D-s(+) and D+ are reconstructed in the phipi(+) decay channel. This measurement uses 11.6 pb(-1) of data collected by CDF II using the new displaced-track trigger. The mass difference is found to be m(D-s(+))-m(D+)=99.41+/-0.38(stat)+/-0.21(syst) MeV/c(2)
Measurement of the prompt J/ψ and ψ(2S) polarizations in pp collisions at s=7 TeV
This is the pre-print version of the final published paper that is available from the link below.The polarizations of prompt J/ψ and ψ(2S) mesons are measured in proton-proton collisions at s=7 TeV, using a dimuon data sample collected by the CMS experiment at the LHC, corresponding to an integrated luminosity of 4.9 fb. The prompt J/ψ and ψ(2S) polarization parameters λ, λ, and λ, as well as the frame-invariant quantity λ~, are measured from the dimuon decay angular distributions in three different polarization frames. The J/ψ results are obtained in the transverse momentum range 14<p<70 GeV, in the rapidity intervals |y|<0.6 and 0.6<|y|<1.2. The corresponding ψ(2S) results cover 14<p<50 GeV and include a third rapidity bin, 1.2<|y|<1.5. No evidence of large polarizations is seen in these kinematic regions, which extend much beyond those previously explored
Tuber sinomacrosporum S. P. Wan, & F. Q. Yu 2023, sp. nov.
Tuber sinomacrosporum S. P. Wan, & F. Q. Yu, sp. nov. (FIGURE 2) MycoBank: 846502 Typification: CHINA. Yunnan Province, Dali City (25° 38′ N , 100° 68′ E), in humic soil under a pure Pinus forest, at about 2090 m, 26 December 2020, wsp1043-8, YNAU016 (GenBank ITS number = OK625303). Diagnosis: Tuber sinomacrosporum is characterized by the brownish-red ascoma, mostly 1(2)-spored asci, large and ellipsoid ascospores. Etymology: referring to a Chinese species have large spores. Description: Ascoma 2.2 × 1.35 cm in diam, oval-shaped or irregular, light brown, partial brown to brownishred when fresh, becoming brownish-red when dried, surface partially covered with yellow tomentose. Odor pleasant. Peridium 108.0–148.0 μm thick, one layer, prosenchymatous, composed of yellowish to transparent cells and interwoven hyphae, cells (1.0–)2.2–5.7(–7.8) × (1.0–)1.7–4.5(–5.4) μm, hyphae 1.3–2.8 μm in diam. Gleba solid, blackish at maturity, marbled with different whitish to greyish veins continuous with the peridium; composed of hyaline, interwoven, thin-walled hyphae, 0.7–2.4 μm broad at the septa, the cells subglobose to globose, 1.1–7.3(– 10.5) × 0.9–5.7(–8.6) μm. Asci 114.0–143.0(–158.0) × 86.0–117.0(–124.0) μm, ellipsoid, rarely pyriform or irregular, hyaline, sessile or with a short or tall stalk 7.5–49.0 μm, 1-spored, rarely 2-spored. Ascospores ellipsoid, sometimes oblong elliptical and broadly ellipsoid, hyaline when young, becoming brownish-red to brown at maturity; excluding alveolar ornamentation, in 1-spored asci (80.0–)89.0–105.0(–109.0) × (55.0–)61.0–76.0(–78.0) μm (Q = 1.32–1.53, Q m = 1.43 ± 0.08) (n = 120), in 2-spored (51.0–)55.0–78.0(–84.0) × (32.0–)37.0–55.0(–57.0) μm (Q = 1.25–1.65, Q m = 1.4 ± 0.16) (n = 30). Ornamented with alveolate reticulum, 2–6 μm deep, constituted of irregularly polygonal meshes, reticulum with 3–7 meshes along the spore length and 3–7 across. Distribution and habitat: Hypogeous, in soil under pure stand of Pinus forest in Yunnan Province, China. Known only from China.Published as part of Wan, Shan-Ping, Liu, Wei, Cui, Meng-Jin, Wang, Rui, Wang, Yu-Yun, Liu, Mei-Ju, Wang, Rui- Xue, Yu, Cheng-Jin & Yu, Fu-Qiang, 2023, Morphological and molecular evidence support a new truffle, Tuber sinomacrosporum, in Macrosporum group, pp. 283-291 in Phytotaxa 591 (4) on pages 286-288, DOI: 10.11646/phytotaxa.591.4.5, http://zenodo.org/record/783557
Demo: Adaptive Resource Allocation Simulator for Federated Learning in MEC-driven SD-WANs
Integrating advanced Machine Learning (ML) techniques, such as Federated Learning (FL), with emerging paradigms like Multi-access Edge Computing (MEC) and Software-Defined Wide Area Network (SD-WAN) has gained significant attention. In this demo, we present a simulator designed to optimize resource allocation for FL in MEC SD-WAN environments, taking into account network capacity constraints. We demonstrate in real-time how resource allocation is implemented for FL algorithms and visually analyze the impact of different constraints on performance. Additionally, we introduce a heuristic algorithm for Distributed Federated Learning (DFL) that selects the optimal global aggregator based on resource utilization. We evaluate the proposed heuristic within our simulation framework and compare its performance against Centralized Federated Learning (CFL) and traditional ML techniques. Our results demonstrate how the proposed simulator effectively integrates network and resource allocation, providing valuable insights into the interplay between FL and MEC SD-WAN infrastructure
Heteroatom doped-carbon nanospheres as anodes in lithium ion batteries
Long cycle performance is a crucial requirement in energy storage devices. New formulations and/or improvement of “conventional” materials have been investigated in order to achieve this target. Here we explore the performance of a novel type of carbon nanospheres (CNSs) with three heteroatom co-doped (nitrogen, phosphorous and sulfur) and high specific surface area as anode materials for lithium ion batteries. The CNSs were obtained from carbonization of highly-crosslinked organo (phosphazene) nanospheres (OPZs) of 300 nm diameter. The OPZs were synthesized via a single and facile step of polycondensation reaction between hexachlorocyclotriphosphazene (HCCP) and 4,4′-sulphonyldiphenol (BPS). The X-ray Photoelectron Spectroscopy (XPS) analysis showed a high heteroatom-doping content in the structure of CNSs while the textural evaluation from the N2 sorption isotherms revealed the presence of micro- and mesopores and a high specific surface area of 875 m2/g. The CNSs anode showed remarkable stability and coulombic efficiency in a long charge–discharge cycling up to 1000 cycles at 1C rate, delivering about 130 mA·h·g−1. This study represents a step toward smart engineering of inexpensive materials with practical applications for energy devices
sj-docx-1-mpp-10.1177_23814683231187566 – Supplemental material for Expected Health Benefits of SGLT-2 Inhibitors and GLP-1 Receptor Agonists in Older Adults
Supplemental material, sj-docx-1-mpp-10.1177_23814683231187566 for Expected Health Benefits of SGLT-2 Inhibitors and GLP-1 Receptor Agonists in Older Adults by Rahul S. Dadwani, Wen Wan, M. Reza Skandari and Elbert S. Huang in MDM Policy & Practice</p
Estimation of surface long wave radiation and broadband emissivity using Moderate Resolution Imaging Spectroradiometer (MODIS) land surface temperature/emissivity products
The Moderate Resolution Imaging Spectroradiometer (MODIS) global land surface temperature (LST)/emissivity products supply daily, 8-day, and monthly global temperature and narrowband emissivity data. This article uses these products to calculate the surface long wave radiation of natural objects such as sand, soil, vegetation, etc., based on the Planck function and the Stefan-Boltzmann law. The results show that using the narrowband emissivity of a single band instead of the broadband emissivity results in large errors of up to 100 W m?2 of the calculated long wave radiation. A method to calculate broadband emissivity in the entire TIR spectral region from the narrowband emissivities of the MODIS bands (29, 31, and 32) in the thermal infrared region is proposed. Using the broadband emissivity, the surface long wave radiation could be calculated to an accuracy better than 6 W m?2 in the temperature region of 240–330 K, with a standard deviation of 1.22 W m?2, and a maximum error of 6.05 W m?2 (not considering the uncertainty associated with the MODIS LST/emissivity products themselves). The satellite estimated broadband emissivity was compared with 3-year (January 2001 to December 2003) ground-based measurements of emissivity at Gaize (32.30°N, 84.06°E, 4420 m) on the western Tibetan Plateau. The results show that the broadband emissivity calculated from MODIS narrowband emissivities by this method matches well the ground measurements, with a standard deviation of 0.0085 and a bias of 0.0015
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