cometadata/datacite-rtg-text-other-reclassification-records huggingface dataset:
ТРАНСПОРТ ВОСИТАСИНИ ОЛИБ ҚОЧИШНИНГ ТУШУНЧАСИ
Creators: name: Анарбоев, И.И.
Publisher: name: Zenodo
Year: 2024

description: Автомобиль ҳозирги кунда алоқани амалга ошириш ҳамда юк ва одам ташишнинг самарали воситаси ҳисобланади. Бу билан автотранспорт аҳолининг турмуш даражаси ва фаровонлигини оширишга хизмат қилади. Дунёда биринчи олиб қочилган машина “Peugeot” машинаси эканлиги ҳаммага маълум ҳақиқатдир. Бироқ, биринчи автомобилни ўғирлаш ҳолатларининг бир нечта тусмоллари мавжуд бўлиб, улар бир-бирига зид бўлган. Асосий  тусмолга кўра, “Peugeot” эгаси Жулиан Бероннинг шахсий механиги томонидан ўғирланган бўлиши мумкин деган тусмол илгари сурилган. Олиб борилган тезкор-қидирув ишлари давомида машина тезда топилган, чунки ўша пайтда бутун Париж автопарки энг кўпи билан ўнта машинадан иборат бўлган.
Parhyale inyacka
Creators: name: Thacker, Dimple
name: Patel, Krupal
name: Myers, Alan
name: Guerra-García, José M.
name: Zeidler, Wolfgang
name: Trivedi, Jigneshkumar
Publisher: name: Zenodo
Year: 2023
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Malacostraca
Amphipoda
Hyalidae
Parhyale
Parhyale inyacka

description: 249. Parhyale inyacka (K.H. Barnard, 1916)
Type locality: Inhaca Island, Maputo Bay, Mozambique.
Synonyms: Parhyale inyacka (K.H. Barnard, 1916)
Distribution. World: Mozambique (Barnard 1916; Griffiths 1973), Caribbean Sea, Cuba, Venezuela (Miloslavich et al. 2010), India (Sivaprakasam 1969b).
India: South India Ecoregion: Tamil Nadu (Sivaprakasam 1969b); Northern Bay of Bengal Ecoregion: Bay of Bengal (Surya Rao 1972).
description: Published as part of Thacker, Dimple, Patel, Krupal, Myers, Alan, Guerra-García, José M., Zeidler, Wolfgang & Trivedi, Jigneshkumar, 2023, Annotated Checklist of Marine Amphipods (Crustacea: Amphipoda) of India, pp. 1-90 in Zootaxa 5340 (1) on page 74, DOI: 10.11646/zootaxa.5340.1.1, http://zenodo.org/record/8324090
Continental Scale Aerosol Optical Properties Over East Asia as Measured by Aeronet and Comparison to Satellite and Modeled Results
Creators: name: Holben, B. N.
name: Eck, Thomas
name: Smirnov, A.
name: Sinyuk, A.
name: Dubovik, O.
name: Slutsker, I.
name: Giles, D.
name: Sorokine, M.
name: Chin, L.
name: Remer, P.
name: Golub, P.
name: Li, Z.
name: Chen, H. B.
name: Panchenko, M. V.
name: Boonjawat, J.
name: Lin, N.-H.
name: Lin, P.-H.
name: Le, H. V.
name: Yoon, S.-C.
name: Singh, R. P.
name: Wong, M.-S.
name: Nichol, J.
name: Huang, J.
name: Zareen, R.
Publisher: name: NTRS
Year: 2007
Subjects: Environment Pollution

description: Meeting: 5th Asian Aerosol Conference Location: Kaohsiung City Country: Taiwan, Province of China Start Date: August 26, 2007 End Date: August 29, 2007
description: The AERONET program has operated in E. Asia since 1995 providing time continuous and time averaged ground-based column-integrated aerosol optical properties in a variety of aerosol regimes In the last four years the distribution has greatly increased in Siberia, China, SE Asia and India in particular. Commensurate with that, significant improvement in data processing algorithms (Version 2.0) and access to ancillary data products through the WWW have become available to the scientific community. At this writing the following distribution represents E and S. Asia: 5 sites operate in Siberia (2 years), 1 in Mongolia (9 years), 3 in Korea (3 to 6 years), 3 in Japan (2 to 7 years), China 11 (6 to 0 years), Taiwan 4 (7 to 2 yrs), Viet Nam 2 (4 years), Thailand 2 to 5 (4 years), and Singapore 1 (4 months), India 1 to 3 (7 to 1 years), Pakistan 2 (1 year), and UAE 3 (3 years). An analysis of the aerosol optical depth at 500 nm using annual average quality assured AERONET data (pre 2006) was used to estimate the mean annual aerosol loading by continent, sub continent and ocean. The individual site data were assumed representative of regional aerosol loading and aggregated to the sub-continental, continental and oceanic areas and presented. This analysis will be updated with more recent data with particular emphasis on seasonal results for Asia and the addition of single scattering albedo retrievals. The ground based results will be compared to MODIS collection 5 results and model estimates for E. Asia using the AERONET Synergy Tool.
Parhyale piloi Myers, Trivedi, Gosavi & Vachhrajani 2017
Creators: name: Thacker, Dimple
name: Patel, Krupal
name: Myers, Alan
name: Guerra-García, José M.
name: Zeidler, Wolfgang
name: Trivedi, Jigneshkumar
Publisher: name: Zenodo
Year: 2023
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Malacostraca
Amphipoda
Hyalidae
Parhyale
Parhyale piloi

description: 250. Parhyale piloi Myers, Trivedi, Gosavi & Vachhrajani, 2017
Type locality: Shivrajpur, Gujarat, India.
Distribution. World: India (Myers et al. 2017).
India: Western India Ecosystem: Gujarat (Myers et al. 2017).
Genus: Protohyale (Diplohyale) Bousfield & Hendrycks, 2002
description: Published as part of Thacker, Dimple, Patel, Krupal, Myers, Alan, Guerra-García, José M., Zeidler, Wolfgang & Trivedi, Jigneshkumar, 2023, Annotated Checklist of Marine Amphipods (Crustacea: Amphipoda) of India, pp. 1-90 in Zootaxa 5340 (1) on page 74, DOI: 10.11646/zootaxa.5340.1.1, http://zenodo.org/record/8324090
Atmospheric chlorine and stratospheric ozone nonlinearities and trend detection
Creators: name: Herman, Jay
name: McQuillan, C. J.
Publisher: name: Maryland Shared Open Access Repository
Year: 1985

description: The percent decrease of total stratospheric ozone column content due to the injection of fluorocarbons (F-11 and F-12) has been found to be a nearly linear function of the atmospheric mixing ratio of ClX between 1.2 and 10 parts per billion by volume (ppbv). In contrast, Cicerone et al. (1983) found a broad region of slightly positive change in ozone column content between 10 and 80 km for small ClX perturbations in addition to a nonlinear negative decrease for larger perturbations. The presence of a nonlinear response in column ozone to moderate ClX changes appears to depend strongly on the method of diurnal averaging employed in the calculation. The immediate decrease in ozone column content for our small ClX perturbation results leads to the prediction of an earlier date for possible experimental detection of total ozone trends related to chlorine. For larger ClX perturbations the response in column ozone is nonlinear when the amount of ClX in the stratosphere becomes comparable to or larger than the amount of NOx. On the basis of our time-dependent calculations using a specified rate of fluorocarbon injection obtained from Logan et al. (1978), and similar previously obtained results from other models, the first evidence of an ozone decrease induced by ClX may be observable in the vicinity of 40 km by 1987–1990 with present-day satellite instrumentation (Nimbus 7). The actual detection of an ozone decrease by 1990 might be obscured by seasonal and longer-term atmospheric variations. Because of increasing fluxes of several minor constituents (e.g., CH4), possible long-term temperature changes in the stratosphere, and possible secular solar flux changes, observation of an ozone decrease is not necessarily an indicator of damage to ozone caused by atmospheric chlorine. Comparing the percent difference curves near 40 km for the diurnal variation of ozone corresponding to different amounts of ClX may provide a means of distinguishing ClX effects from other atmospheric changes. The change should be detectable when ClX finally reaches 5 ppbv in the upper stratosphere (about 2020). By the year 2020 the total ozone decrease due to ClX should be about 3% (2.5% with increasing methane) and may already pose environmental problems.
The MODIS Aerosol Algorithm, Products, and Validation
Creators: name: Remer, Lorraine
name: Kaufman, Y. J.
name: Tanré, D.
name: Mattoo, S.
name: Chu, D. A.
name: Martins, J. V.
name: Li, R.-R.
name: Ichoku, C.
name: Levy, R. C.
name: Kleidman, R. G.
name: Eck, Thomas
name: Vermote, E.
name: Holben, B. N.
Publisher: name: AMS
Year: 2005

description: The Moderate Resolution Imaging Spectroradiometer (MODIS) aboard both NASA’s Terra and Aqua satellites is making near-global daily observations of the earth in a wide spectral range (0.41–15 ?m). These measurements are used to derive spectral aerosol optical thickness and aerosol size parameters over both land and ocean. The aerosol products available over land include aerosol optical thickness at three visible wavelengths, a measure of the fraction of aerosol optical thickness attributed to the fine mode, and several derived parameters including reflected spectral solar flux at the top of the atmosphere. Over the ocean, the aerosol optical thickness is provided in seven wavelengths from 0.47 to 2.13 ?m. In addition, quantitative aerosol size information includes effective radius of the aerosol and quantitative fraction of optical thickness attributed to the fine mode. Spectral irradiance contributed by the aerosol, mass concentration, and number of cloud condensation nuclei round out the list of available aerosol products over the ocean. The spectral optical thickness and effective radius of the aerosol over the ocean are validated by comparison with two years of Aerosol Robotic Network (AERONET) data gleaned from 132 AERONET stations. Eight thousand MODIS aerosol retrievals collocated with AERONET measurements confirm that one standard deviation of MODIS optical thickness retrievals fall within the predicted uncertainty of ?? = ±0.03 ±0.05? over ocean and ?? = ±0.05 ± 0.15? over land. Two hundred and seventy-one MODIS aerosol retrievals collocated with AERONET inversions at island and coastal sites suggest that one standard deviation of MODIS effective radius retrievals falls within ?reff = ±0.11 ?m. The accuracy of the MODIS retrievals suggests that the product can be used to help narrow the uncertainties associated with aerosol radiative forcing of global climate.
Ανιχνευτική Ψυχολογική Συνέντευξη: Έντυπα και λογιστικό φύλλο ψυχολογικής υπηρεσίας κοινότητας
Creators: name: Ρήγος, Μάρκος
Publisher: name: Zenodo
Year: 2024

description: Τα έγγραφα φακέλου, το συνοδό λογιστικό φύλλο και οι βασικές αρχές της ανιχνευτικής ψυχολογικής συνέντευξης έχουν δημιουργηθεί για τις ανάγκες οργάνωσης και εύρυθμης λειτουργίας μιας Ψυχολογικής Υπηρεσίας σε επίπεδο τοπικής αυτοδιοίκησης. 

Πιο συγκεκριμένα δημιουργήθηκαν για τη λειτουργία της Ψυχολογικής Υπηρεσίας του Δήμου Ηλιούπολης κατά τα έτη 2015 - 2024.
description: Τα αρχεία είναι υπό οριστικοποίηση.
Protohyale (Diplohyale) diplodactyla
Creators: name: Thacker, Dimple
name: Patel, Krupal
name: Myers, Alan
name: Guerra-García, José M.
name: Zeidler, Wolfgang
name: Trivedi, Jigneshkumar
Publisher: name: Zenodo
Year: 2023
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Malacostraca
Amphipoda
Hyalidae
Protohyale
Protohyale diplodactyla

description: 251. Protohyale (Diplohyale) diplodactyla (Stebbing, 1899)
Type locality: Saint Croix Island.
Synonyms: Hyale diplodactyla Stebbing, 1899
Distribution. World: Saint Croix Island (Stebbing 1899), Caribbean Sea (Miloslavich et al. 2010), India (Sivaprakasam 1969a).
India: Western India Ecoregion: Arabian Sea (Surya Rao 1972 as Hyale diplodactyla Stebbing, 1899); South India Ecoregion: Tamil Nadu (Sivaprakasam 1969a as Hyale diplodactyla Stebbing, 1899); Northern Bay of Bengal Ecoregion: Bay of Bengal (Surya Rao 1972 as Hyale diplodactyla Stebbing, 1899).
Genus: Protohyale (Protohyale) Bousfield & Hendrycks, 2002
description: Published as part of Thacker, Dimple, Patel, Krupal, Myers, Alan, Guerra-García, José M., Zeidler, Wolfgang & Trivedi, Jigneshkumar, 2023, Annotated Checklist of Marine Amphipods (Crustacea: Amphipoda) of India, pp. 1-90 in Zootaxa 5340 (1) on page 74, DOI: 10.11646/zootaxa.5340.1.1, http://zenodo.org/record/8324090
Meteor 3/total ozone mapping spectrometer observations of the 1993 ozone hole
Creators: name: Herman, Jay
name: Newman, P. A.
name: McPeters, R.
name: Krueger, A. J.
name: Bhartia, P. K.
name: Seftor, C. J.
name: Torres, O.
name: Jaross, G.
name: Cebula, R. P.
name: Larko, D.
name: Wellemeyer, C.
Publisher: name: Maryland Shared Open Access Repository
Year: 1995

description: The development of the springtime (September–November) Antarctic ozone hole was observed by the Meteor 3/total ozone mapping spectrometer (TOMS) to result in the lowest ozone value, 85 DU (Dobson units) on October 8, 1993, ever measured by TOMS. During late September and early October the region of extremely low ozone values was centered on the geographical pole between 85°S and 90°S. The geographical extent of the ozone hole region, the area within the 220-DU contour, reached a maximum during the first week in October at a near-circular area covering 24×106 km2 reaching to the southern tip of South America. This approximately matched the 1992 area record. After the maximum area was reached in early October, the 1993 ozone hole region was significantly larger than during 1992 throughout the remainder of the month of October. The very low ozone values over the Antarctic continent have been confirmed by independent ground-based data. Unlike 1992, the formation of the 1993 Antarctic ozone hole does not coincide with unusually low ozone values observed over most of the globe for the past 2 years. The most recent ozone data from Meteor 3/TOMS show that there has been a recovery at all latitudes from the extraordinarily low values observed during 1992 and part of 1993 after the June 1991 eruption of Mount Pinatubo. Meteor 3/TOMS is described and compared with Nimbus 7/TOMS during the 1991 to May 1993 overlap period. Observations of the 1992 ozone hole are presented from both instruments and are shown to agree within 5 DU.
A new self-calibration method applied to TOMS and SBUV backscattered ultraviolet data to determine long-term global ozone change
Creators: name: Herman, Jay
name: Hudson, R.
name: McPeters, R.
name: Stolarski, R.
name: Ahmad, Z.
name: Gu, X.-Y.
name: Taylor, S.
name: Wellemeyer, C.
Publisher: name: Maryland Shared Open Access Repository
Year: 1991

description: The currently archived (1989) total ozone mapping spectrometer (TOMS) and solar backscattered ultraviolet (SBUV) total ozone data (version 5) show a global average decrease of about 9.0% from November 1978 to November 1988. This large decrease disagrees with an approximate 3.5% decrease estimated from the ground-based Dobson network. The primary source of disagreement was found to arise from an overestimate of reflectivity change and its incorrect wavelengths dependence for the diffuser plate used when measuring solar irradiance. Both of these factors have led to an overestimate of the rate of atmospheric ozone depletion by SBUV and TOMS. For total ozone measured by TOMS, a means has been found to use the measured radiance-irradiance ratio from several wavelengths pairs to construct an internally self consistent calibration. The method uses the wavelength dependence of the sensitivity to calibration errors and the requirement that albedo ratios for each wavelength pair yield the same total ozone amounts. Smaller errors in determining spacecraft attitude, synchronization problems with the photon counting electronics, and sea glint contamination of boundary reflectivity data have been corrected or minimized. New climatological low-ozone profiles have been incorporated into the TOMS algorithm that are appropriate for Antarctic ozone hole conditions and other low ozone cases. The combined corrections have led to a new determination of the global average total ozone trend (version 6) as a 2.9±1.3% decrease over 11 years (October 1978 to November 1989). Version 6 data are shown to be in agreement within error limits with the average of 39 ground-based Dobson stations and with the world standard Dobson spectrometer 83 at Mauna Loa, Hawaii. The global average ozone trend from version 6 data shows the presence of varying short-period trends (1979 to 1983, ?0.33%/yr; 1983 to 1986, ?0.91% yr, and 1986 to 1990, +0.16%/yr) that are partially masked in the original version 5 trends.
Textiles and the Environment - The role of design in Europe's circular economy (ETC CE report 2/2022)
Creators: name: Duhoux, Tom
name: Le Blévennec, Kevin
name: Manshoven, Saskia
name: Grossi, Francesca
name: Arnold, Mona
name: Fogh Mortensen, Lars
Publisher: name: Zenodo
Year: 2022

description: From a European consumption perspective, textiles have on average the fourth highest negative life cycle impacts on the environment and climate change – after food, housing and mobility. A shift to a circular textiles production and consumption system with longer use, reuse and recycling can contribute to reducing those impacts, along with reductions in overall consumption. One important measure is circular design of textiles to improve product durability, repairability and recyclability, and to ensure the uptake of secondary raw materials in new products.

The aim of this report is to contribute to the implementation of the EU Strategy for Textiles and the EU Sustainable Product Initiative through an improved understanding of the environmental impacts from textiles from a European perspective and identify design principles and measures to increase circularity in textiles.
Measuring aerosol UV absorption optical thickness by combining use of shadowband and almucantar techniques
Creators: name: Krotkov, Nickolay A.
name: Bhartia, Pawan K.
name: Herman, Jay
name: Slusser, James
name: Scott, Gwen
name: Labow, Gordon
name: Vasilkov, Alexander P.
name: Eck, Thomas
name: Dubovik, Oleg
name: Holben, Brent
Publisher: name: SPIE
Year: 2004

description: Optical Science and Technology, the SPIE 49th Annual Meeting, 2004, Denver, Colorado, United States
description: We report final results of an aerosol UV absorption closure experiment where a UV-shadow-band radiometer (UV-MFRSR, USDA UVB Monitoring and Research Network) and 4 rotating sun-sky radiometers (CIMEL, NASA AERONET network) were run side-by-side continuously for 17 months at NASA/GSFC site in Greenbelt, MD. The aerosol extinction optical thickness τext, was measured by the CIMEL direct-sun technique in the visible and at two UV wavelengths 340 and 380 nm. These results were used for UV-MFRSR daily on-site calibration and 3-min measurements of τext at 325nm, 332nm and 368nm. The τext measurements were used as input to the radiative transfer model along with AERONET retrievals of the column-integrated particle size distribution (PSD)to infer an effective imaginary part of the UV aerosol refractive index, k, by fitting MFRSR measured voltage ratios. Using all cases for cloud-free days, we derive diurnal and seasonal dependence of the aerosol absorption optical thickness, τabs with an uncertainty 0.01­-0.02. At our site τabs follows pronounced seasonal dependence with maximum values ~0.07 at 368nm (~0.15 at 325nm) occurring in summer hazy conditions and <0.02 in winter-fall seasons, when aerosol loadings are small. Inferred values of k allow calculation of the single scattering albedo, ω, in UVA and comparisons with AERONET almucantar ω440 retrievals at 440nm. Overall, ω was slightly lower in UV than in the visible: case average <ω368>=0.93 compared to <ω440>=0.95. However, the differences (<ω440 - ω368> ~0.02, rms difference ~0.016) are smaller than uncertainties of both retrievals (δω~0.03). Low <ω368> values are consistent with higher values for imaginary refractive index, k: ~0.01 compare to ~0.006. However, mean differences in k (~0.004) were only slightly larger than AERONET retrieval uncertainty δk ~0.00327. We also found that ω decreases with decrease in τext, suggesting different aerosol composition in summer and winter months. So far, our results do not allow explaining the causes of apparent larger aerosol absorption in UV. Continuing co-located measurements at GFSC is important to improve the comparison statistics, but conducting aerosol absorption measurements at different sites with varying conditions is also desirable.
title: Rice :
title: Guidelines for the Conduct of Tests for Distinctness, Uniformity and Stability.
titleType: Subtitle
Creators: name: (:Unas)
Publisher: name: Unknown
Year: 2020

description: The purpose of these guidelines (“Test Guidelines”) is to elaborate the principles contained in the General Introduction (document TG/1/3), and its associated TGP documents, into detailed practical guidance for the harmonized examination of distinctness, uniformity and stability (DUS) and, in particular, to identify appropriate characteristics for the examination of DUS and production of harmonized variety descriptions.
Protohyale (Protohyale) affinis
Creators: name: Thacker, Dimple
name: Patel, Krupal
name: Myers, Alan
name: Guerra-García, José M.
name: Zeidler, Wolfgang
name: Trivedi, Jigneshkumar
Publisher: name: Zenodo
Year: 2023
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Malacostraca
Amphipoda
Hyalidae
Protohyale
Protohyale affinis

description: 252. Protohyale (Protohyale) affinis (Chevreux, 1907)
Type locality: Makapu Island, South Atlantic Ocean.
Synonyms: Hyale affinis Chevreux, 1907.
Distribution. World: Makapu Island (Chevreux 1907), India (Sivaprakasam 1969a).
India: Eastern India Ecoregion: Tamil Nadu (Sivaprakasam 1969a as Hyale affinis Chevreux, 1907; Venkataraman 2007 as Hyale affinis Chevreux, 1907); Northern Bay of Bengal Ecoregion: Bay of Bengal (Surya Rao 1972 as Hyale affinis Chevreux, 1907).
description: Published as part of Thacker, Dimple, Patel, Krupal, Myers, Alan, Guerra-García, José M., Zeidler, Wolfgang & Trivedi, Jigneshkumar, 2023, Annotated Checklist of Marine Amphipods (Crustacea: Amphipoda) of India, pp. 1-90 in Zootaxa 5340 (1) on pages 74-75, DOI: 10.11646/zootaxa.5340.1.1, http://zenodo.org/record/8324090
Protohyale (Protohyale) chevreuxi
Creators: name: Thacker, Dimple
name: Patel, Krupal
name: Myers, Alan
name: Guerra-García, José M.
name: Zeidler, Wolfgang
name: Trivedi, Jigneshkumar
Publisher: name: Zenodo
Year: 2023
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Malacostraca
Amphipoda
Hyalidae
Protohyale
Protohyale chevreuxi

description: 253. Protohyale (Protohyale) chevreuxi (K.H. Barnard, 1916)
Type locality: Cape Town, South Africa.
Synonyms: Hyale chevreuxi K.H. Barnard, 1916.
Distribution. World: South Africa (Barnard 1916), India (Sivaprakasam 1969a).
India: South India Ecoregion: Tamil Nadu (Sivaprakasam 1969a as Hyale chevreuxi K.H. Barnard, 1916); Eastern India ecoregion: Tamil Nadu (Sivaprakasam 1969a as Hyale chevreuxi K.H. Barnard, 1916; Venkataraman 2007 as Hyale chevreuxi K.H. Barnard, 1916); Northern Bay of Bengal Ecoregion: Bay of Bengal (Surya Rao 1972 as Hyale chevreuxi K.H. Barnard, 1916).
description: Published as part of Thacker, Dimple, Patel, Krupal, Myers, Alan, Guerra-García, José M., Zeidler, Wolfgang & Trivedi, Jigneshkumar, 2023, Annotated Checklist of Marine Amphipods (Crustacea: Amphipoda) of India, pp. 1-90 in Zootaxa 5340 (1) on page 75, DOI: 10.11646/zootaxa.5340.1.1, http://zenodo.org/record/8324090
Protohyale (Protohyale) honoluluensis
Creators: name: Thacker, Dimple
name: Patel, Krupal
name: Myers, Alan
name: Guerra-García, José M.
name: Zeidler, Wolfgang
name: Trivedi, Jigneshkumar
Publisher: name: Zenodo
Year: 2023
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Malacostraca
Amphipoda
Hyalidae
Protohyale
Protohyale honoluluensis

description: 254. Protohyale (Protohyale) honoluluensis (Schellenberg, 1938)
Type locality: Hawaii, USA (Schellenberg, 1938).
Synonyms: Hyale honoluluensis Schellenberg, 1938.
Distribution. World: USA (Schellenberg 1938), India (Nayar 1959).
India: Western India Ecoregion: Arabian Sea (Surya Rao 1972 as Hyale honoluluensis Schellenberg, 1938);
South India Ecoregion: Tamil Nadu (Nayar 1966 as Hyale honoluluensis Schellenberg, 1938; Thilagavathi et al. 2013 as Hyale honoluluensis Schellenberg, 1938); Eastern India Ecoregion: Tamil Nadu (Nayar 1959 as Hyale honoluluensis Schellenberg, 1938; Lyla et al. 1998 as Hyale honoluluensis Schellenberg, 1938; Venkataraman 2007 as Hyale honoluluensis Schellenberg, 1938; Mondal et al. 2010 as Hyale honoluluensis Schellenberg, 1938; Thilagavathi et al. 2013 as Hyale honoluluensis Schellenberg, 1938); Northern Bay of Bengal Ecoregion: Bay of Bengal (Surya Rao 1972 as Hyale honoluluensis Schellenberg, 1938).
description: Published as part of Thacker, Dimple, Patel, Krupal, Myers, Alan, Guerra-García, José M., Zeidler, Wolfgang & Trivedi, Jigneshkumar, 2023, Annotated Checklist of Marine Amphipods (Crustacea: Amphipoda) of India, pp. 1-90 in Zootaxa 5340 (1) on page 75, DOI: 10.11646/zootaxa.5340.1.1, http://zenodo.org/record/8324090
Protohyale galateae
Creators: name: Thacker, Dimple
name: Patel, Krupal
name: Myers, Alan
name: Guerra-García, José M.
name: Zeidler, Wolfgang
name: Trivedi, Jigneshkumar
Publisher: name: Zenodo
Year: 2023
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Malacostraca
Amphipoda
Hyalidae
Protohyale
Protohyale galateae

description: 255. Protohyale galateae (Stebbing, 1899)
Type locality: Pacific and Atlantic Ocean.
Synonyms: Hyale galateae Stebbing, 1899; Protohyale galateae galateae (Stebbing, 1899).
Distribution. World: Pacific and Atlantic Ocean (Stebbing 1899), India (Surya Rao 1972).
India: Western India Ecoregion: Arabian Sea (Surya Rao 1972 as Hyale galateae Stebbing, 1899); Northern Bay of Bengal Ecoregion: Bay of Bengal (Surya Rao 1972 as Hyale galateae Stebbing, 1899).
description: Published as part of Thacker, Dimple, Patel, Krupal, Myers, Alan, Guerra-García, José M., Zeidler, Wolfgang & Trivedi, Jigneshkumar, 2023, Annotated Checklist of Marine Amphipods (Crustacea: Amphipoda) of India, pp. 1-90 in Zootaxa 5340 (1) on page 75, DOI: 10.11646/zootaxa.5340.1.1, http://zenodo.org/record/8324090
Pereionotus natalensis
Creators: name: Thacker, Dimple
name: Patel, Krupal
name: Myers, Alan
name: Guerra-García, José M.
name: Zeidler, Wolfgang
name: Trivedi, Jigneshkumar
Publisher: name: Zenodo
Year: 2023
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Malacostraca
Amphipoda
Phliantidae
Pereionotus
Pereionotus natalensis

description: 257. Pereionotus natalensis (K.H. Barnard, 1940)
Type locality: Isipingo, Natal, South Africa.
Synonyms: Palinnotus natalensis K.H. Barnard, 1940.
Distribution. World: South Africa (Barnard 1940), India (Surya Rao 1972).
India: Northern Bay of Bengal Ecoregion: Bay of Bengal (Surya Rao 1972 as Palinnotus natalensis K.H. Barnard, 1940).
description: Published as part of Thacker, Dimple, Patel, Krupal, Myers, Alan, Guerra-García, José M., Zeidler, Wolfgang & Trivedi, Jigneshkumar, 2023, Annotated Checklist of Marine Amphipods (Crustacea: Amphipoda) of India, pp. 1-90 in Zootaxa 5340 (1) on page 75, DOI: 10.11646/zootaxa.5340.1.1, http://zenodo.org/record/8324090
Protohyale covelongensis Raut, Prakash & Arjunan
Creators: name: Thacker, Dimple
name: Patel, Krupal
name: Myers, Alan
name: Guerra-García, José M.
name: Zeidler, Wolfgang
name: Trivedi, Jigneshkumar
Publisher: name: Zenodo
Year: 2023
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Malacostraca
Amphipoda
Hyalidae
Protohyale
Protohyale covelongensis

description: 256. Protohyale covelongensis Raut, Prakash & Arjunan in Raut, Prakash, Arjunan & Kumar, 2022 Type locality: Covelong, Chennai Coast, Tamil Nadu, India.
Distribution. World: India (Raut et al. 2022).
India: Eastern India Ecoregion: (Raut et al. 2022).
description: Published as part of Thacker, Dimple, Patel, Krupal, Myers, Alan, Guerra-García, José M., Zeidler, Wolfgang & Trivedi, Jigneshkumar, 2023, Annotated Checklist of Marine Amphipods (Crustacea: Amphipoda) of India, pp. 1-90 in Zootaxa 5340 (1) on page 75, DOI: 10.11646/zootaxa.5340.1.1, http://zenodo.org/record/8324090
Current and Future Perspectives of Aerosol Research at NASA Goddard Space Flight Center
Creators: name: Matsui, Toshi
name: Ichoku, Charles
name: Randles, Cynthia
name: Yuan, Tianle
name: Silva, Arlindo M. Da
name: Colarco, Peter
name: Kim, Dongchul
name: Levy, Robert
name: Sayer, Andrew
name: Chin, Mian
name: Giles, David
name: Holben, Brent
name: Welton, Ellsworth
name: Eck, Thomas
name: Remer, Lorraine
Publisher: name: AMS
Year: 2014

description: NASA GSFC AEROCENTER ANNUAL MEETING 2013
description: "Current and Future Perspectives of Aerosol Research at NASA Goddard Space Flight Center" published on Oct 2014 by American Meteorological Society.
Phliantidae Stebbing 1899
Creators: name: Thacker, Dimple
name: Patel, Krupal
name: Myers, Alan
name: Guerra-García, José M.
name: Zeidler, Wolfgang
name: Trivedi, Jigneshkumar
Publisher: name: Zenodo
Year: 2023
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Malacostraca
Amphipoda
Phliantidae

description: Family: Phliantidae Stebbing, 1899
Genus: Pereionotus Spence Bate & Westwood, 1861
description: Published as part of Thacker, Dimple, Patel, Krupal, Myers, Alan, Guerra-García, José M., Zeidler, Wolfgang & Trivedi, Jigneshkumar, 2023, Annotated Checklist of Marine Amphipods (Crustacea: Amphipoda) of India, pp. 1-90 in Zootaxa 5340 (1) on page 75, DOI: 10.11646/zootaxa.5340.1.1, http://zenodo.org/record/8324090
Protorchestiidae Myers & Lowry 2020
Creators: name: Thacker, Dimple
name: Patel, Krupal
name: Myers, Alan
name: Guerra-García, José M.
name: Zeidler, Wolfgang
name: Trivedi, Jigneshkumar
Publisher: name: Zenodo
Year: 2023
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Malacostraca
Amphipoda
Protorchestiidae

description: Family: Protorchestiidae Myers & Lowry, 2020
Genus: Cochinorchestia Lowry & Peart, 2010
description: Published as part of Thacker, Dimple, Patel, Krupal, Myers, Alan, Guerra-García, José M., Zeidler, Wolfgang & Trivedi, Jigneshkumar, 2023, Annotated Checklist of Marine Amphipods (Crustacea: Amphipoda) of India, pp. 1-90 in Zootaxa 5340 (1) on page 76, DOI: 10.11646/zootaxa.5340.1.1, http://zenodo.org/record/8324090
Cochinorchestia morini
Creators: name: Thacker, Dimple
name: Patel, Krupal
name: Myers, Alan
name: Guerra-García, José M.
name: Zeidler, Wolfgang
name: Trivedi, Jigneshkumar
Publisher: name: Zenodo
Year: 2023
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Malacostraca
Amphipoda
Protorchestiidae
Cochinorchestia
Cochinorchestia morini

description: 258. Cochinorchestia morini (Lyla, Velvizhi & Ajmal Khan, 1998)
Type locality: Parangipettai Coast, Tamil Nadu, India.
Synonyms: Parorchestia morini Lyla, Velvizhi & Ajmal Khan, 1998.
Distribution. World: India (Lyla et al. 1998).
India: South India Ecoregion: Tamil Nadu (Thilagavathi et al. 2013 as Parorchestia morini Lyla, Velvizhi & Ajmal Khan, 1998); Eastern India Ecoregion: Tamil Nadu (Lyla et al. 1998 as Parorchestia morini Lyla, Velvizhi & Ajmal Khan, 1998; Mondal et al. 2010 as Parorchestia morini Lyla, Velvizhi & Ajmal Khan, 1998; Thilagavathi et al. 2013 as Parorchestia morini Lyla, Velvizhi & Ajmal Khan, 1998; Azhagu et al. 2017 as Parorchestia morini Lyla, Velvizhi & Ajmal Khan, 1998).
Genus: Cochinorchestia Lowry & Peart, 2010
description: Published as part of Thacker, Dimple, Patel, Krupal, Myers, Alan, Guerra-García, José M., Zeidler, Wolfgang & Trivedi, Jigneshkumar, 2023, Annotated Checklist of Marine Amphipods (Crustacea: Amphipoda) of India, pp. 1-90 in Zootaxa 5340 (1) on page 76, DOI: 10.11646/zootaxa.5340.1.1, http://zenodo.org/record/8324090
Cochinorchestia notabilis
Creators: name: Thacker, Dimple
name: Patel, Krupal
name: Myers, Alan
name: Guerra-García, José M.
name: Zeidler, Wolfgang
name: Trivedi, Jigneshkumar
Publisher: name: Zenodo
Year: 2023
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Malacostraca
Amphipoda
Protorchestiidae
Cochinorchestia
Cochinorchestia notabilis

description: 259. Cochinorchestia notabilis (K.H. Barnard, 1935)
Type locality: Vypin, Kochi, Kerala.
Synonyms: Microrchestia notabilis (K.H. Barnard, 1935); Orchestia notabilis (Barnard, 1935); Parorchestia notabilis K.H. Barnard, 1935.
Distribution. World: India (Barnard 1935).
India: Western India Ecoregion: Kerala (Barnard 1935 as Parorchestia notabilis K.H. Barnard, 1935; Dev Roy et al. 2009 as Parorchestia notabilis K.H. Barnard, 1935; Surya Rao 1972 as Orchestia notabilis (Barnard, 1935); Eastern India Ecoregion: Tamil Nadu (Lyla et al. 1998 as Parorchestia notabilis K.H. Barnard, 1935; Mondal et al. 2010 as Parorchestia notabilis K.H. Barnard, 1935; Khan et al. 2017).
description: Published as part of Thacker, Dimple, Patel, Krupal, Myers, Alan, Guerra-García, José M., Zeidler, Wolfgang & Trivedi, Jigneshkumar, 2023, Annotated Checklist of Marine Amphipods (Crustacea: Amphipoda) of India, pp. 1-90 in Zootaxa 5340 (1) on page 76, DOI: 10.11646/zootaxa.5340.1.1, http://zenodo.org/record/8324090
Talitridae Rafinesque 1815
Creators: name: Thacker, Dimple
name: Patel, Krupal
name: Myers, Alan
name: Guerra-García, José M.
name: Zeidler, Wolfgang
name: Trivedi, Jigneshkumar
Publisher: name: Zenodo
Year: 2023
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Malacostraca
Amphipoda
Talitridae

description: Family: Talitridae Rafinesque, 1815
Genus: Floresorchestia Bousfield, 1984
description: Published as part of Thacker, Dimple, Patel, Krupal, Myers, Alan, Guerra-García, José M., Zeidler, Wolfgang & Trivedi, Jigneshkumar, 2023, Annotated Checklist of Marine Amphipods (Crustacea: Amphipoda) of India, pp. 1-90 in Zootaxa 5340 (1) on page 76, DOI: 10.11646/zootaxa.5340.1.1, http://zenodo.org/record/8324090
Floresorchestia anomala
Creators: name: Thacker, Dimple
name: Patel, Krupal
name: Myers, Alan
name: Guerra-García, José M.
name: Zeidler, Wolfgang
name: Trivedi, Jigneshkumar
Publisher: name: Zenodo
Year: 2023
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Malacostraca
Amphipoda
Talitridae
Floresorchestia
Floresorchestia anomala

description: 260. Floresorchestia anomala (Chevreux, 1901)
Type locality: Round Island, Seychelles.
Synonyms: Orchestia anomala Chevreux, 1901.
Distribution. World: Seychelles (Chevreux 1901), India (Sivaprakasam 1969a).
India: South India Ecoregion: Tamil Nadu (Sivaprakasam 1969a as Orchestia anomala Chevreux, 1901);
Eastern India Ecoregion: Andhra Pradesh (Sivaprakasam 1969a as Orchestia anomala Chevreux, 1901); Northern Bay of Bengal Ecoregion: Bay of Bengal (Surya Rao 1972 as Orchestia anomala Chevreux, 1901.
description: Published as part of Thacker, Dimple, Patel, Krupal, Myers, Alan, Guerra-García, José M., Zeidler, Wolfgang & Trivedi, Jigneshkumar, 2023, Annotated Checklist of Marine Amphipods (Crustacea: Amphipoda) of India, pp. 1-90 in Zootaxa 5340 (1) on page 76, DOI: 10.11646/zootaxa.5340.1.1, http://zenodo.org/record/8324090
Columnar aerosol optical properties at AERONET sites in central eastern Asia and aerosol transport to the tropical mid-Pacific
Creators: name: Eck, Thomas
name: Holben, B. N.
name: Dubovik, O.
name: Smirnov, A.
name: Goloub, P.
name: Chen, H. B.
name: Chatenet, B.
name: Gomes, L.
name: Zhang, X.-Y.
name: Tsay, S.-C.
name: Ji, Q.
name: Giles, D.
name: Slutsker, I.
Publisher: name: AGU
Year: 2005
Subjects: aerosol
Asia
optical

description: The column-integrated optical properties of aerosol in the central eastern region of Asia and midtropical Pacific were investigated based on Sun/sky radiometer measurements made at Aerosol Robotic Network (AERONET) sites in these regions. Characterization of aerosol properties in the Asian region is important due to the rapid growth of both population and economic activity, with associated increases in fossil fuel combustion, and the possible regional and global climatic impacts of related aerosol emissions. Multiyear monitoring over the complete annual cycle at sites in China, Mongolia, South Korea, and Japan suggest spring and/or summer maximum in aerosol optical depth (?a) and a winter minimum; however, more monitoring is needed to establish accurate climatologies. The annual cycle of Angstrom wavelength exponent (?) showed a springtime minimum associated with dust storm activity; however, the monthly mean ?440–870 was >0.8 even for the peak dust season at eastern Asian sites suggesting that fine mode pollution aerosol emitted from population centers in eastern Asia dominates the monthly aerosol optical influence even in spring as pollution aerosol mixes with coarse mode dust originating in western source regions. Aerosol optical depth peaks in spring in the tropical mid-Pacific Ocean associated with seasonal shifts in atmospheric transport from Asia, and ?35% of the springtime ?a500 enhancement occurs at altitudes above 3.4 km. For predominately fine mode aerosol pollution cases, the average midvisible (?550 nm) single scattering albedo (?0) at two continental urban sites in China averaged ?0.89, while it was significantly higher, ?0.93, at two relatively rural coastal sites in South Korea and Japan. Differences in fine mode absorption between these regions may result from a combination of factors including aerosol aging during transport, relative humidity differences, sea salt at coastal sites, and fuel type and combustion differences in the two regions. For cases where ?a was predominately coarse mode dust aerosol in the spring of 2001, the absorption was greater in eastern Asia compared to the source regions, with ?0 at Dunhuang, China (near to the major Taklamakan dust source), ?0.04 higher than at Beijing at all wavelengths, and Anmyon, South Korea, showing an intermediate level of absorption. Possible reasons for differences in dust absorption magnitude include interactions between dust and fine mode pollution aerosol and also variability of dust optical properties from different source regions in China and Mongolia.
Controlling my genome with my smartphone: first clinical experiences of the PROMISE system
Creators: name: Amr, Ali
name: Hinderer, Marc
name: Griebel, Lena
name: Deuber, Dominic
name: Egger, Christoph
name: Sedaghat-Hamedani, Farbod
name: Kayvanpour, Elham
name: Huhn, Daniel
name: Haas, Jan
name: Frese, Karen
name: Schweig, Marc
name: Marnau, Ninja
name: Krämer, Annika
name: Durand, Claudia
name: Battke, Florian
name: Prokosch, Hans-Ulrich
name: Backes, Michael
name: Keller, Andreas
name: Schröder, Dominique
name: Katus, Hugo A
name: Frey, Norbert
name: Meder, Benjamin
Publisher: name: CISPA
Year: 2024

description: Background
The development of Precision Medicine strategies requires high-dimensional phenotypic and genomic data, both of which are highly privacy-sensitive data types. Conventional data management systems lack the capabilities to sufficiently handle the expected large quantities of such sensitive data in a secure manner. PROMISE is a genetic data management concept that implements a highly secure platform for data exchange while preserving patient interests, privacy, and autonomy.

Methods
The concept of PROMISE to democratize genetic data was developed by an interdisciplinary team. It integrates a sophisticated cryptographic concept that allows only the patient to grant selective access to defined parts of his genetic information with single DNA base-pair resolution cryptography. The PROMISE system was developed for research purposes to evaluate the concept in a pilot study with nineteen cardiomyopathy patients undergoing genotyping, questionnaires, and longitudinal follow-up.

Results
The safety of genetic data was very important to 79%, and patients generally regarded the data as highly sensitive. More than half the patients reported that their attitude towards the handling of genetic data has changed after using the PROMISE app for 4 months (median). The patients reported higher confidence in data security and willingness to share their data with commercial third parties, including pharmaceutical companies (increase from 5 to 32%).

Conclusion
PROMISE democratizes genomic data by a transparent, secure, and patient-centric approach. This clinical pilot study evaluating a genetic data infrastructure is unique and shows that patient’s acceptance of data sharing can be increased by patient-centric decision-making.
Seasonal Variability of Aerosol Single Scattering Albedo at Biomass Burning Sites in Southern Africa and Amazonia
Creators: name: Eck, Thomas
name: Holben, Brent
name: Mukelabai, M.
name: Dubovik, Oleg
name: Smirnov, Alexander
name: Schafer, J.
name: Slutsker, I.
Publisher: name: Maryland Shared Open Access Repository
Year: 2011

description: Monitoring of the optical properties of primarily biomass burning aerosols in Mongu, Zambia was initiated in 1995, when an AERONET sun/sky radiometer site was established at the Mongu airport. For the biomass burning season months (July-November), we present monthly means of aerosol single scattering albedo (SSA), aerosol size distributions, and refractive indices from almucantar sky scan retrievals utilizing the algorithm of Dubovik and King (2000). The monthly mean single scattering albedo at 440 nm in Mongu was found to increase significantly from July (0.845) to October (0.93). The slope of the spectral dependence of aerosol single scattering albedo with wavelength decreased as SSA increased from July to October. However, there was no significant change in particle size in either the dominant accumulation or secondary coarse modes during these months. Similarly, seasonal SSA retrievals for Etosha Pan, Namibia also show increasing values through the burning season in 2000. We also analyze the seasonality of SSA for sites in biomass burning regions of Amazonia. We show maps of satellite detected fire counts which indicate that the regions of primary biomass burning shift significantly from July to October. Possible reasons for the seasonal changes in observed SSA include differences in aging to due transport speed and distance from source regions, differences in biomass fuel types in different regions (fraction of woody biomass versus grasses), and differences in fuel moisture content (October is the beginning of the rainy season on both continents).
Satellite-Based Spatiotemporal Trends in PM2.5 Concentrations: China, 2004–2013
Creators: name: Ma, Zongwei
name: Hu, Xuefei
name: Sayer, Andrew
name: Levy, Robert
name: Zhang, Qiang
name: Xue, Yingang
name: Tong, Shilu
name: Bi, Jun
name: Huang, Lei
name: Liu, Yang
Publisher: name: EHP Publishing
Year: 2015

description: BackgroundThree decades of rapid economic development is causing severe and widespread PM2.5 (particulate matter ? 2.5 ?m) pollution in China. However, research on the health impacts of PM2.5 exposure has been hindered by limited historical PM2.5 concentration data.ObjectivesWe estimated ambient PM2.5 concentrations from 2004 to 2013 in China at 0.1° resolution using the most recent satellite data and evaluated model performance with available ground observations.MethodsWe developed a two-stage spatial statistical model using the Moderate Resolution Imaging Spectroradiometer (MODIS) Collection 6 aerosol optical depth (AOD) and assimilated meteorology, land use data, and PM2.5 concentrations from China’s recently established ground monitoring network. An inverse variance weighting (IVW) approach was developed to combine MODIS Dark Target and Deep Blue AOD to optimize data coverage. We evaluated model-predicted PM2.5 concentrations from 2004 to early 2014 using ground observations.ResultsThe overall model cross-validation R2 and relative prediction error were 0.79 and 35.6%, respectively. Validation beyond the model year (2013) indicated that it accurately predicted PM2.5 concentrations with little bias at the monthly (R2 = 0.73, regression slope = 0.91) and seasonal (R2 = 0.79, regression slope = 0.92) levels. Seasonal variations revealed that winter was the most polluted season and that summer was the cleanest season. Analysis of predicted PM2.5 levels showed a mean annual increase of 1.97 ?g/m3 between 2004 and 2007 and a decrease of 0.46 ?g/m3 between 2008 and 2013.ConclusionsOur satellite-driven model can provide reliable historical PM2.5 estimates in China at a resolution comparable to those used in epidemiologic studies on the health effects of long-term PM2.5 exposure in North America. This data source can potentially advance research on PM2.5 health effects in China.CitationMa Z, Hu X, Sayer AM, Levy R, Zhang Q, Xue Y, Tong S, Bi J, Huang L, Liu Y. 2016. Satellite-based spatiotemporal trends in PM2.5 concentrations: China, 2004–2013. Environ Health Perspect 124:184–192;?https://doi.org/10.1289/ehp.1409481
Floresorchestia floresiana
Creators: name: Thacker, Dimple
name: Patel, Krupal
name: Myers, Alan
name: Guerra-García, José M.
name: Zeidler, Wolfgang
name: Trivedi, Jigneshkumar
Publisher: name: Zenodo
Year: 2023
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Malacostraca
Amphipoda
Talitridae
Floresorchestia
Floresorchestia floresiana

description: 261. Floresorchestia floresiana (Weber, 1892)
Type locality: Flores Island, Indonesia.
Synonyms: Orchestia floresiana Weber, 1892; Orchestia malayensis Tattersall, 1922.
Distribution. World: Indonesia (Weber 1892), India (Surya Rao 1972).
India: Northern Bay of Bengal Ecoregion: Bay of Bengal (Surya Rao 1972 as Orchestia floresiana Weber, 1892.
Genus: Talorchestia Dana, 1852
description: Published as part of Thacker, Dimple, Patel, Krupal, Myers, Alan, Guerra-García, José M., Zeidler, Wolfgang & Trivedi, Jigneshkumar, 2023, Annotated Checklist of Marine Amphipods (Crustacea: Amphipoda) of India, pp. 1-90 in Zootaxa 5340 (1) on pages 76-77, DOI: 10.11646/zootaxa.5340.1.1, http://zenodo.org/record/8324090
Estimating reflected and emitted components of the radiation balance using remotely-sensed spectral data from KUREX-91
Creators: name: Blad, B. L.
name: Walter-Shea, E. A.
name: Mesarch, M. A.
name: Hays, C. J.
name: Deering, D.
name: Eck, Thomas
Publisher: name: NTRS
Year: 1992
Subjects: Earth Resources And Remote Sensing

description: IGARSS '92; Proceedings of the 12th Annual International Geoscience and Remote Sensing Symposium, Houston, TX, May 26-29, 1992.
description: The estimation of incoming and outgoing radiation streams using bidirectional spectral reflectances and bidirectional thermal emittances is described. Good agreement between measured and modeled estimates of the radiation balance is obtained. The data used were collected over selected grassland sites on the Streletskaya Steppe Reserve in Russia in July 1991. Results from this study compare well with results obtained during the first ISLSCP field experiment (FIFE) study in Kansas in 1987-89.
Talorchestia affinis Maccagno 1936
Creators: name: Thacker, Dimple
name: Patel, Krupal
name: Myers, Alan
name: Guerra-García, José M.
name: Zeidler, Wolfgang
name: Trivedi, Jigneshkumar
Publisher: name: Zenodo
Year: 2023
Subjects: Biodiversity
Taxonomy
Animalia
Arthropoda
Malacostraca
Amphipoda
Talitridae
Talorchestia
Talorchestia affinis

description: 262. Talorchestia affinis Maccagno, 1936
Type locality: Assab, Eritrea.
Distribution. World: Eritrea (Maccagno 1936), Red Sea (Ruffo 1969), India (Trivedi et al. 2020).
India: Maldives Ecoregion: Lakshadweep (Trivedi et al. 2020).
description: Published as part of Thacker, Dimple, Patel, Krupal, Myers, Alan, Guerra-García, José M., Zeidler, Wolfgang & Trivedi, Jigneshkumar, 2023, Annotated Checklist of Marine Amphipods (Crustacea: Amphipoda) of India, pp. 1-90 in Zootaxa 5340 (1) on page 77, DOI: 10.11646/zootaxa.5340.1.1, http://zenodo.org/record/8324090