| Keywords: GSC:MIxS;MIMS:5.0 |
1508 |
| Vaccuum dust from bedding and floor adjacent to bed |
879 |
| soil metagenome |
287 |
| Metagenomic leaf sample of NCLB infected maize |
256 |
| Table surface swab collected from food centre |
226 |
| Keywords: GSC:MIxS;MIMS:6.0 |
185 |
| Density fractionated DNA |
157 |
| Illumina NextSeq 500 (2 x 150) |
136 |
| aerobic sludge |
90 |
| hospital effluent |
72 |
| long-term incubation exposed to xenobiotics |
62 |
| conventional farming |
60 |
| intensively used grassland |
60 |
| organic farming |
60 |
| lake sediment core samples |
56 |
| Sandy organic material |
53 |
| Mangrove sediments in the Qi'ao Mangrove Wetland Park of Guangdong province, China |
50 |
| Soils collected from an engineered column created to test how different plant species affected nitrogen removal rates through the column and the microbial population within the soil. Samples were collected from the "Top" zone affected by plant roots, and a "Bottom" zone where plant roots were not affecting the soil. |
49 |
| Conservation |
42 |
| cleandata |
39 |
| Whole body tissue |
38 |
| shotgun |
36 |
| Bacterioplankton |
34 |
| surface water, humic |
34 |
| Rhizosphere |
32 |
| benthic detritus inside bromeliad tank, aquatic, sludge-like |
31 |
| Chinese kimchi |
30 |
| Korean kimchi |
29 |
| core sample |
26 |
| Anodic-chamber planktonic community from a poised-anode electrochemical cell inoculated with sediment from a uranium-contaminated groundwater aquifer in Rifle, CO, USA. |
24 |
| forest soil metagenomics |
24 |
| Mature grapevines with trunk diseases symptoms in commercial vineyard conditions |
22 |
| Rhizoplane |
22 |
| Cropland |
18 |
| In this study, we revealed the core resistome disseminating from hospital wastewater to the aquatic environment by characterising the trail of resistome, plasmidome, mobilome and virulome, as well as elucidating their different resistome risks. |
18 |
| Native forest |
18 |
| Plantation |
18 |
| water from 120 cm depth, humic |
18 |
| Supratidal beach sample from Bay 106; Undisturbed control |
16 |
| Sampling from Inner Mongolia |
15 |
| Sampling from Mongolia |
15 |
| Keywords: GSC:MIxS;MIGS:5.0 |
13 |
| Metagenome from Rimov reservoir, 0.22um, 0.5m |
13 |
| Metagenome from Rimov reservoir, 0.8um gravity filtration, 0.5m |
13 |
| Metagenome from Rimov reservoir, 5um, 0.5m |
13 |
| sediment was collected from coastal Antarctica and then DNA extracted and shotgun metagenomics sequencing was performed. |
13 |
| Illumina HiSeq1500 shotgun-sequencing |
12 |
| Mica schist surface metagenome |
12 |
| Supratidal beach sample from Bay 106; Test plot IMCe |
12 |
| Supratidal beach sample from Bay 106; Test plot IMEc |
12 |
| Supratidal beach sample from Bay 106; Test plot IMEe |
12 |
| USGS 02226160 Altamaha River at Everett City, GA |
12 |
| USGS 04264331 St. Lawrence River at Cornwall, Ontario, near Massena, NY |
12 |
| USGS 07374525 Mississippi River at Belle Chasse, LA |
12 |
| USGS 14246900 Columbia River near Beaver Army Terminal, OR |
12 |
| summer |
12 |
| winter |
12 |
| Supratidal beach sample from Bay 106; Test plot IMCc |
11 |
| 5 um fraction |
10 |
| Sandy site. Samples include 0-5 and 20-30 cm depths |
10 |
| silt loam site |
10 |
| 180μm-0.2 μm water fraction |
9 |
| Azolla filiculoides kept in culture |
9 |
| USGS 15565447 Yukon River at Pilot Station, AK |
9 |
| Unfractionated DNA |
9 |
| temperature ramp |
8 |
| Organic, no agrochemicals are used |
7 |
| Prairierestored |
7 |
| Supratidal beach sample from Ragged Island; Undisturbed control |
7 |
| The Amazon region has the largest hydrographic basin on the planet, the one that includes Amazon River. Besides, it shows a great biological diversity, including related to microorganisms, however, they are poorly studied. The microorganisms are responsible for most of the biogeochemical cycles that determine the terrestrial environment and the freshwater and marine ecosystems, and they can be largely explored in biotechnology. In this work it was used DNA extracted from Solimoes river filtered water, to study the microbial diversity, using metagenomics approaches. |
7 |
| hospital wastewater metagenome |
7 |
| 0.22 um fraction |
6 |
| Azolla filiculoides rid of cyanobacteria |
6 |
| Conventional |
6 |
| Keywords: GSC:MIxS;MIMARKS:5.0 |
6 |
| Mature grapevines in commercial vineyard conditions |
6 |
| Metagenome from Rimov reservoir, 0.22um, 30m |
6 |
| Metagenome from Rimov reservoir, 0.8um gravity filtration, 30m |
6 |
| Metagenome from Rimov reservoir, 5um, 30m |
6 |
| Prairienative |
6 |
| highly-contaminated |
6 |
| non-contaminated |
6 |
| replicate 1 |
6 |
| replicate 2 |
6 |
| replicate 3 |
6 |
| surface sediment metagenome |
6 |
| Bacteria cultured on regular media in soil 6w after crude oil addition |
5 |
| Crude oil Cultivated bacteria in soil 6 w after crude oil addition |
5 |
| Initial microbiome in soil 6w after crude oil addition |
5 |
| Supratidal beach sample from Crude Oil Point; Undisturbed control |
5 |
| rawdata of Lake Fuxian sample |
5 |
| LAB_O3_Lab_Overhead_3 |
4 |
| Lake Malaren (Brostugan) |
4 |
| N1_O4_Node_1_Overhead_4 |
4 |
| N3_F4_Node_3_F4_location_in_from_of_the_WHC |
4 |
| Node_1_Dining_Table |
4 |
| Node_2_Port_crew_quarters_Bump-Out_exterior_aft_wall |
4 |
| Node_3_ARED_Foot_platform |
4 |
| PMM_P1_PMM_Port_1 |
4 |
| Port_panel_next_to_cupola_In_Node_3_next_to_the_cupola_on_the_way_down_into_the_cupola_on_the_port_panel |
4 |
| Shotgun metagenomic sequencing of Boi-le-Roi lake water column with DNA extraction |
4 |
| Shotgun metagenomic sequencing of Cergy - small lake water column with DNA extraction |
4 |
| Shotgun metagenomic sequencing of Champs-sur-Marne lake water column with DNA extraction |
4 |
| Shotgun metagenomic sequencing of Créteil lake water column with DNA extraction |
4 |
| Shotgun metagenomic sequencing of Jablines lake water column with DNA extraction |
4 |
| Shotgun metagenomic sequencing of La Grande-Paroisse lake water column with DNA extraction |
4 |
| Shotgun metagenomic sequencing of Vaires-sur-Marne lake water column with DNA extraction |
4 |
| Shotgun metagenomic sequencing of Verneuil-sur-Marne lake water column with DNA extraction |
4 |
| Supratidal beach sample from Crude Oil Point; Oiled test plot T1 |
4 |
| bacterioplankton fraction determined from DNA extract of water sample from Zhongda sampling station |
4 |
| biomass 0.1-0.2um |
4 |
| Azolla caroliniana kept in culture irri.og CA3004 |
3 |
| Azolla caroliniana kept in culture irri.org CA3017 |
3 |
| Azolla mexicana kept in culture irri.org ME2001 |
3 |
| Azolla microphylla kept in culture irri.org MI4021 |
3 |
| Azolla nilotica kept in culture irri.org NI5001 |
3 |
| Azolla rubra kept in culture irri.org RU6502 |
3 |
| Control soil, collected 1 day after rain (1-day manure-rainfall time gap) |
3 |
| Control soil, collected 1 h before rain (1-day manure-rainfall time gap) |
3 |
| Copenhagen, Denmark |
3 |
| El Paso, TX, USA |
3 |
| Filtrate of 1 L ditch Water, inhabited by Azolla filiculoides |
3 |
| Hornungia_alpina_10years |
3 |
| Illumina sequencing |
3 |
| Initial soil microbiome |
3 |
| Keywords: GSC:MIxS;MIMARKS:6.0 |
3 |
| Lake Malaren (Drottingholm) |
3 |
| Manitowoc wastewater treatment plant effluent (0.22um filter) |
3 |
| Manure, solid matter content of ~5.3% (w/w), antibiotic mixture includes sulfamethazine, sulfadimethoxine, tetracycline, oxytetracycline, chlortetracycline, erythromycin, tylosin, and pirlimycin |
3 |
| Manured soil (subsurface infection), collected 1 day after rain (1-day manure-rainfall time gap) |
3 |
| Manured soil (subsurface infection), collected 1 day after rain (7-day manure-rainfall time gap) |
3 |
| Manured soil (subsurface infection), collected 1 h before rain (1-day manure-rainfall time gap) |
3 |
| Manured soil (subsurface infection), collected 1 h before rain (7-day manure-rainfall time gap) |
3 |
| Manured soil (subsurface infection), collected 45 days after rain (1-day manure-rainfall time gap) |
3 |
| Manured soil (surface application), collected 1 day after rain (1-day manure-rainfall time gap) |
3 |
| Manured soil (surface application), collected 1 day after rain (7-day manure-rainfall time gap) |
3 |
| Manured soil (surface application), collected 1 h before rain (1-day manure-rainfall time gap) |
3 |
| Manured soil (surface application), collected 1 h before rain (7-day manure-rainfall time gap) |
3 |
| Manured soil (surface application), collected 45 days after rain (1-day manure-rainfall time gap) |
3 |
| Marine sediment microbial communities from subtidal zone of North Sea |
3 |
| Papaver alpinum_10years |
3 |
| Runoff of subsurface-injected plot, began ~20.9 min after ~639.7 L rainfall, ~12.2 L was collected in 30 min (1-day manure-rainfall time gap) |
3 |
| Sediment microbiome |
3 |
| Sedum atratum_10years |
3 |
| Sheboygan wastewater treatment plant effluent (0.22um filter) |
3 |
| Shotgun metagenomic sequencing of Cergy - large lake water column with DNA extraction |
3 |
| Soil_DS_10years |
3 |
| backwater site |
3 |
| river water, also for drinking |
3 |
| riverine site |
3 |
| 'MIS 2016 July ''omics samples 250-281 white' |
2 |
| A Mobio kit was used for DNA extraction |
2 |
| Anode biofilm sample from a poised-anode electrochemical cell inoculated with sediment from a uranium-contaminated groundwater aquifer in Rifle, CO, USA. |
2 |
| Belem, Brasil |
2 |
| Bulk soil |
2 |
| Cameroon: High Rainfall |
2 |
| Cameroon: Savannah |
2 |
| Cathodic-chamber planktonic community from a poised-anode electrochemical cell inoculated with sediment from a uranium-contaminated groundwater aquifer in Rifle, CO, USA. |
2 |
| Freshwater metagenome from Lake Zurich, Switzerland; 5 m depth, 03-Apr-2019 |
2 |
| Gabon: High Rainfall |
2 |
| Gabon: Savannah |
2 |
| Intensive. Agrochemicals used: cupric oxide (Hidromet Flo, Tacsa, Mexico) as a fungicide, Astro 34% Permethrin as insecticide (FMC, USA), foliar fertilizers Nutri Wunder 12-62-00 (AgroScience, Mexico), Syntek immunopotentializer foliar fertilizer (AgroScience, Mexico), CaB fertilizer (Dragon, Mexico), MAXI-Grow biostimulant (Agrozar, Spain), adherent Fixed-Gro (Agroscience, Mexico. Soil fertilization: organic pig and cow manure (once a year). |
2 |
| Lake Baikal represents the deepest (1637 m) and largest fresh liquid water volume (23,000 km3) in Earth (20% of the unfrozen freshwater). This study describes the microbial communities of the Lake using high throughput sequencing. 30 L of water were filtered through the net (size 27 microns) and through nitrocellulose filters with a pore size of 0.22 microns. DNA was extracted from the 0.22 micron filter (small, planktonic fraction) filter to obtain genomic DNA of the microbial community. |
2 |
| Lake M�laren (Brostugan) |
2 |
| NextSeq1 was a re-sequence of some samples from ELF001A. This was a pool of previous negative controls. |
2 |
| Nigeria: High Rainfall |
2 |
| Nigeria: Savannah |
2 |
| Runoff of control plot, began ~32.2 min after ~789.6 L rainfall, ~20.9 L was collected in 30 min |
2 |
| Runoff of surface-applied plot, began ~8.0 min after ~487.2 L rainfall, ~36.7 L was collected in 30 min (1-day manure-rainfall time gap) |
2 |
| Sediment core from a heavy oil reservoir, Alberta, Canada. |
2 |
| Supratidal beach sample from Bay 11; Undisturbed control |
2 |
| Supratidal beach sample from Crude Oil Point; Oiled test plot T2 |
2 |
| The STE method was used for DNA extraction |
2 |
| kimchi (from Ireland) |
2 |
| kombucha (from Ireland) |
2 |
| saurkraut (from Ireland) |
2 |
| 'Abidjan, Cote d''Ivoire' |
1 |
| 'MIS 2016 July ''omics samples 250-281 purple' |
1 |
| 'N''Djamena, Chad' |
1 |
| 'O'' Connor lake sample, mineral layer, OM0C0 treatment, replicate 1' |
1 |
| 'O'' Connor lake sample, mineral layer, OM0C0 treatment, replicate 2' |
1 |
| 'O'' Connor lake sample, mineral layer, OM0C0 treatment, replicate 3' |
1 |
| 'O'' Connor lake sample, mineral layer, OM1C0 treatment, replicate 1' |
1 |
| 'O'' Connor lake sample, mineral layer, OM1C0 treatment, replicate 2' |
1 |
| 'O'' Connor lake sample, mineral layer, OM1C0 treatment, replicate 3' |
1 |
| 'O'' Connor lake sample, mineral layer, OM2C0 treatment, replicate 1' |
1 |
| 'O'' Connor lake sample, mineral layer, OM2C0 treatment, replicate 2' |
1 |
| 'O'' Connor lake sample, mineral layer, OM2C0 treatment, replicate 3' |
1 |
| 'O'' Connor lake sample, mineral layer, OM3C0 treatment, replicate 1' |
1 |
| 'O'' Connor lake sample, mineral layer, OM3C0 treatment, replicate 2' |
1 |
| 'O'' Connor lake sample, mineral layer, OM3C0 treatment, replicate 3' |
1 |
| 'O'' Connor lake sample, organic layer, OM0C0 treatment, replicate 1' |
1 |
| 'O'' Connor lake sample, organic layer, OM0C0 treatment, replicate 2' |
1 |
| 'O'' Connor lake sample, organic layer, OM0C0 treatment, replicate 3' |
1 |
| 'O'' Connor lake sample, organic layer, OM1C0 treatment, replicate 1' |
1 |
| 'O'' Connor lake sample, organic layer, OM1C0 treatment, replicate 2' |
1 |
| 'O'' Connor lake sample, organic layer, OM1C0 treatment, replicate 3' |
1 |
| 'O'' Connor lake sample, organic layer, OM2C0 treatment, replicate 1' |
1 |
| 'O'' Connor lake sample, organic layer, OM2C0 treatment, replicate 2' |
1 |
| 'O'' Connor lake sample, organic layer, OM2C0 treatment, replicate 3' |
1 |
| 04-572 |
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| 17-061 |
1 |
| 17-063 |
1 |
| 17-065 |
1 |
| 17-067 |
1 |
| 17-072 |
1 |
| 17-073 |
1 |
| 17-074 |
1 |
| 17-077 |
1 |
| 17-086 |
1 |
| 17-090 |
1 |
| 17-091 |
1 |
| 17-093 |
1 |
| 17-098 |
1 |
| 17-107 |
1 |
| 17-112 |
1 |
| 17-113 |
1 |
| 17-116 |
1 |
| 18-318 |
1 |
| 18-320 |
1 |
| 18-321 |
1 |
| 18-322 |
1 |
| 18-323 |
1 |
| 18-324 |
1 |
| 18-327 |
1 |
| 18-328 |
1 |
| 18-329 |
1 |
| 18-330 |
1 |
| 18-331 |
1 |
| 18-332 |
1 |
| 18-333 |
1 |
| 18-334 |
1 |
| 18-335 |
1 |
| 18-336 |
1 |
| 18-337 |
1 |
| 18-338 |
1 |
| 18-339 |
1 |
| 18-340 |
1 |
| 18-341 |
1 |
| 18-468 |
1 |
| 18-505 |
1 |
| 18-506 |
1 |
| 18-550 |
1 |
| 18-551 |
1 |
| 18-555 |
1 |
| 20 years, bottom |
1 |
| 20 years, middle |
1 |
| 20 years, top |
1 |
| 220 years, bottom |
1 |
| 220 years, middle |
1 |
| 220 years, top |
1 |
| 30 years, bottom |
1 |
| 30 years, middle |
1 |
| 30 years, top |
1 |
| 350 years, bottom |
1 |
| 350 years, middle |
1 |
| 350 years, top |
1 |
| 400 years, bottom |
1 |
| 400 years, middle |
1 |
| 400 years, top |
1 |
| 440 years, bottom |
1 |
| 440 years, middle |
1 |
| 440 years, top |
1 |
| 50 years, bottom |
1 |
| 50 years, middle |
1 |
| 50 years, top |
1 |
| ALA_IN_041220 |
1 |
| ALA_IN_041420 |
1 |
| ALA_IN_042220 |
1 |
| ALA_IN_042720 |
1 |
| ALA_IN_042920 |
1 |
| ALA_IN_050220 |
1 |
| ALA_IN_050920 |
1 |
| ALA_IN_051220 |
1 |
| ALA_IN_051920 |
1 |
| ALA_IN_052320 |
1 |
| ALA_IN_052720 |
1 |
| ALA_IN_053020 |
1 |
| ALA_IN_060120 |
1 |
| ALA_IN_061020 |
1 |
| ALA_IN_061120 |
1 |
| ALA_IN_061220 |
1 |
| ALA_IN_061320 |
1 |
| ALA_IN_062220 |
1 |
| ALA_IN_062720 |
1 |
| ALA_IN_070420 |
1 |
| ALA_IN_070820 |
1 |
| Addis Ababa, Ethiopia |
1 |
| Aerobic_0 |
1 |
| Aerobic_5 |
1 |
| Aerobic_8 |
1 |
| AerobictoAnoxic_0 |
1 |
| AerobictoAnoxic_5 |
1 |
| AerobictoAnoxic_8 |
1 |
| Almaty, Kazakhstan |
1 |
| Ancient permafrost from central Yakutia - BGG_LOSDA |
1 |
| Ancient permafrost from central Yakutia - BGG_MOSDA |
1 |
| Ancient permafrost from central Yakutia - BGG_NOSDA |
1 |
| Ancient permafrost from central Yakutia - BGG_OOSDC |
1 |
| Ancient permafrost from central Yakutia - BGG_POSDC |
1 |
| Ancient permafrost from central Yakutia - BGG_QOSDA |
1 |
| Ancient permafrost from central Yakutia - BGG_ROSDA |
1 |
| Ancient permafrost from central Yakutia- BGG_KOSDC |
1 |
| Ancient siberian permafrost - BGG_BOSW |
1 |
| Ankara, Turkey |
1 |
| Anoxic_0 |
1 |
| Anoxic_5 |
1 |
| Anoxic_8 |
1 |
| AnoxictoAerobic_0 |
1 |
| AnoxictoAerobic_5 |
1 |
| AnoxictoAerobic_8 |
1 |
| Atlanta, GA, USA |
1 |
| Azolla leaf juice biological replicate 1 |
1 |
| Azolla leaf juice biological replicate 2 |
1 |
| Azolla leaf juice biological replicate 3 |
1 |
| Azolla plant biological replicate 1 |
1 |
| Azolla plant biological replicate 2 |
1 |
| Azolla plant biological replicate 3 |
1 |
| Baltic Sea Basin sediment collected from the Bornholm Basin during IODP x347 at site 65C. |
1 |
| Baltic Sea Basin sediment metagenome from IODP x347 from site 65C. |
1 |
| Baltic Sea Basin sediment metagenome from the Bornholm Basin corresponding to IODP x347 site 65. |
1 |
| Baltic Sea Basin sediment metagenomes collected by IODP x347 from sediment core 59E - 5H2 |
1 |
| Banjul, The Gambia |
1 |
| Barcelona, Spain |
1 |
| Baseline_10_2018-09-14 |
1 |
| Baseline_11_2018-09-15 |
1 |
| Baseline_12_2018-09-16 |
1 |
| Baseline_13_2018-09-17 |
1 |
| Baseline_14_2018-09-18 |
1 |
| Baseline_15_2018-09-19 |
1 |
| Baseline_16_2018-09-20 |
1 |
| Baseline_17_2018-09-21 |
1 |
| Baseline_18_2018-09-22 |
1 |
| Baseline_19_2018-09-23 |
1 |
| Baseline_1_2018-09-05 |
1 |
| Baseline_20_2018-09-24 |
1 |
| Baseline_21_2018-09-25 |
1 |
| Baseline_22_2018-09-26 |
1 |
| Baseline_23_2018-09-27 |
1 |
| Baseline_24_2018-09-28 |
1 |
| Baseline_25_2018-09-29 |
1 |
| Baseline_26_2018-09-30 |
1 |
| Baseline_27_2018-10-01 |
1 |
| Baseline_28_2018-10-02 |
1 |
| Baseline_29_2018-10-03 |
1 |
| Baseline_2_2018-09-06 |
1 |
| Baseline_30_2018-10-04 |
1 |
| Baseline_31_2018-10-05 |
1 |
| Baseline_32_2018-10-06 |
1 |
| Baseline_33_2018-10-07 |
1 |
| Baseline_3_2018-09-07 |
1 |
| Baseline_4_2018-09-08 |
1 |
| Baseline_5_2018-09-09 |
1 |
| Baseline_6_2018-09-10 |
1 |
| Baseline_7_2018-09-11 |
1 |
| Baseline_8_2018-09-12 |
1 |
| Baseline_9_2018-09-13 |
1 |
| Bedong, Malaysia |
1 |
| Belgrade, Serbia |
1 |
| Belvaux, Luxembourg |
1 |
| Berlin, Germany |
1 |
| Bilthoven, The Netherlands |
1 |
| Blodgett sample, mineral layer, OM0C0 treatment, replicate 1 |
1 |
| Blodgett sample, mineral layer, OM0C0 treatment, replicate 2 |
1 |
| Blodgett sample, mineral layer, OM0C0 treatment, replicate 3, first time sequenced |
1 |
| Blodgett sample, mineral layer, OM0C0 treatment, replicate 3, second time sequenced |
1 |
| Blodgett sample, mineral layer, OM1C0 treatment, replicate 1 |
1 |
| Blodgett sample, mineral layer, OM1C0 treatment, replicate 2 |
1 |
| Blodgett sample, mineral layer, OM1C0 treatment, replicate 3 |
1 |
| Blodgett sample, mineral layer, OM2C0 treatment, replicate 1 |
1 |
| Blodgett sample, mineral layer, OM2C0 treatment, replicate 2, first time sequenced |
1 |
| Blodgett sample, mineral layer, OM2C0 treatment, replicate 2, second time sequenced |
1 |
| Blodgett sample, mineral layer, OM2C0 treatment, replicate 3 |
1 |
| Blodgett sample, mineral layer, OM3C0 treatment, replicate 1 |
1 |
| Blodgett sample, mineral layer, OM3C0 treatment, replicate 2 |
1 |
| Blodgett sample, mineral layer, OM3C0 treatment, replicate 3 |
1 |
| Blodgett sample, organic layer, OM0C0 treatment, replicate 1 |
1 |
| Blodgett sample, organic layer, OM0C0 treatment, replicate 2 |
1 |
| Blodgett sample, organic layer, OM0C0 treatment, replicate 3 |
1 |
| Blodgett sample, organic layer, OM1C0 treatment, replicate 1 |
1 |
| Blodgett sample, organic layer, OM1C0 treatment, replicate 2 |
1 |
| Blodgett sample, organic layer, OM1C0 treatment, replicate 3 |
1 |
| Blodgett sample, organic layer, OM2C0 treatment, replicate 1 |
1 |
| Blodgett sample, organic layer, OM2C0 treatment, replicate 2 |
1 |
| Blodgett sample, organic layer, OM2C0 treatment, replicate 3 |
1 |
| Bothnian Sea sediment, site NB8, incubated subsample BS1 |
1 |
| Bothnian Sea sediment, site NB8, incubated subsample BS3 |
1 |
| Bothnian Sea sediment, site NB8, incubated subsample BS4 |
1 |
| Bothnian Sea sediment, site US5B, incubated subsample BS2 |
1 |
| Bothnian Sea, sediment core sample, site NB8 |
1 |
| Boulder, CO, USA |
1 |
| Bratislava, Slovakia |
1 |
| Brno, Czech Republic |
1 |
| Budapest, Hungary |
1 |
| Bulk soil microbial communities from the field in Mead, Nebraska, USA - 072115-187_1 MetaG |
1 |
| C replicate 1 |
1 |
| C replicate 2 |
1 |
| C replicate 3 |
1 |
| C+R replicate 1 |
1 |
| C+R replicate 2 |
1 |
| C+R replicate 3 |
1 |
| CE_Jul18 metagenome |
1 |
| CE_Oct18 metagenome |
1 |
| CH_Jul18 metagenome |
1 |
| CH_Oct18 metagenome |
1 |
| CONSERVE_10_MD06_MayA |
1 |
| CONSERVE_11_MD10_MayA_BRDU |
1 |
| CONSERVE_12_MD06_MayA_BRDU |
1 |
| CONSERVE_13_MD10_JuneA_BRDU |
1 |
| CONSERVE_14_MD10_JuneA |
1 |
| CONSERVE_15_MD06_JuneA_BRDU |
1 |
| CONSERVE_16_MD06_JuneA |
1 |
| CONSERVE_17_MD10_JuneB_BRDU |
1 |
| CONSERVE_18_MD10_JuneB |
1 |
| CONSERVE_19_MD06_JuneB |
1 |
| CONSERVE_1_MD10_MarchA |
1 |
| CONSERVE_20_MD06_JuneB_BRDU |
1 |
| CONSERVE_21_MD10_JulyA |
1 |
| CONSERVE_22C_MD10_JulyA_BRDU |
1 |
| CONSERVE_23_MD06_JulyA |
1 |
| CONSERVE_24C_MD06_JulyA_BRDU |
1 |
| CONSERVE_25_MD06_AugustA |
1 |
| CONSERVE_26_MD10_AugustA |
1 |
| CONSERVE_27C_MD06_AugustA_BRDU |
1 |
| CONSERVE_29C_MD10_AugustB_BRDU |
1 |
| CONSERVE_2_MD06_MarchA |
1 |
| CONSERVE_30_MD10_AugustB |
1 |
| CONSERVE_31_MD06_AugustB |
1 |
| CONSERVE_32C_MD06_AugustB_BRDU |
1 |
| CONSERVE_33C_MD10_SeptA_BRDU |
1 |
| CONSERVE_34_MD10_SeptA |
1 |
| CONSERVE_35_MD06_SeptA |
1 |
| CONSERVE_36C_MD06_SeptA_BRDU |
1 |
| CONSERVE_37C_MD10_SeptB_BRDU |
1 |
| CONSERVE_38_MD10_SeptB |
1 |
| CONSERVE_39_MD06_SeptB |
1 |
| CONSERVE_3_MD10_MarchA_BRDU |
1 |
| CONSERVE_40C_MD06_SeptB_BRDU |
1 |
| CONSERVE_41_MD10_OctA |
1 |
| CONSERVE_42C_MD10_OctA_BRDU |
1 |
| CONSERVE_43_MD06_OctA |
1 |
| CONSERVE_44C_MD06_OctA_BRDU |
1 |
| CONSERVE_45C_MD10_OctB_BRDU |
1 |
| CONSERVE_46C_MD06_OctB_BRDU |
1 |
| CONSERVE_47_MD06_OctB |
1 |
| CONSERVE_48_MD10_OctB |
1 |
| CONSERVE_49C_MD10_NovA_BRDU |
1 |
| CONSERVE_4_MD06_MarchA_BRDU |
1 |
| CONSERVE_50_MD10_NovA |
1 |
| CONSERVE_51C_MD06_NovA_BRDU |
1 |
| CONSERVE_52_MD06_NovA |
1 |
| CONSERVE_53_MD10_DecA |
1 |
| CONSERVE_54C_MD10_DecA_BRDU |
1 |
| CONSERVE_55C_MD10_JanA_BRDU |
1 |
| CONSERVE_56_MD10_JanA |
1 |
| CONSERVE_5_MD10_AprilA_BRDU |
1 |
| CONSERVE_6_MD06_AprilA_BRDU |
1 |
| CONSERVE_7_MD10_AprilA |
1 |
| CONSERVE_8_MD06_AprilA |
1 |
| CONSERVE_9_MD10_MayA |
1 |
| CT+AMF-1 |
1 |
| CT+AMF-2 |
1 |
| CT+AMF-3 |
1 |
| CT-AMF-1 |
1 |
| CT-AMF-2 |
1 |
| CT-AMF-3 |
1 |
| CTF_0-15_1 |
1 |
| CTF_0-15_2 |
1 |
| CTF_0-15_3 |
1 |
| CTF_15-30_1 |
1 |
| CTF_15-30_2 |
1 |
| CTF_15-30_3 |
1 |
| CTJ_0-15_1 |
1 |
| CTJ_0-15_2 |
1 |
| CTJ_0-15_3 |
1 |
| CTJ_15-30_1 |
1 |
| CTJ_15-30_2 |
1 |
| CTJ_15-30_3 |
1 |
| CTM_0-15_1 |
1 |
| CTM_0-15_2 |
1 |
| CTM_0-15_3 |
1 |
| CTM_15-30_1 |
1 |
| CTM_15-30_2 |
1 |
| CTM_15-30_3 |
1 |
| CTM_R_1 |
1 |
| CTM_R_2 |
1 |
| CTM_R_3 |
1 |
| Calgary, Canada |
1 |
| Chicago, IL, USA |
1 |
| Chisinau, Moldova |
1 |
| Coal cuttings from Coal bed Methane well site |
1 |
| Cochin, India |
1 |
| Colombo, Sri Lanka |
1 |
| D1_AM_ER |
1 |
| D1_AM_ISLAND |
1 |
| D1_AM_KT |
1 |
| D1_AM_MOS |
1 |
| D1_AM_TC |
1 |
| D1_AM_TKO |
1 |
| D1_AM_TW |
1 |
| D1_AM_WR |
1 |
| D1_PM_ER |
1 |
| D1_PM_ISLAND |
1 |
| D1_PM_KT |
1 |
| D1_PM_MOS |
1 |
| D1_PM_TC |
1 |
| D1_PM_TKO |
1 |
| D1_PM_TW |
1 |
| D1_PM_WR |
1 |
| D2_AM_ER |
1 |
| D2_AM_ISLAND |
1 |
| D2_AM_KT |
1 |
| D2_AM_MOS |
1 |
| D2_AM_TC |
1 |
| D2_AM_TKO |
1 |
| D2_AM_TW |
1 |
| D2_AM_WR |
1 |
| D2_PM_ER |
1 |
| D2_PM_ISLAND |
1 |
| D2_PM_KT |
1 |
| D2_PM_MOS |
1 |
| D2_PM_TC |
1 |
| D2_PM_TKO |
1 |
| D2_PM_TW |
1 |
| D2_PM_WR |
1 |
| D3_AM_ER |
1 |
| D3_AM_ISLAND |
1 |
| D3_AM_KT |
1 |
| D3_AM_MOS |
1 |
| D3_AM_TC |
1 |
| D3_AM_TKO |
1 |
| D3_AM_TW |
1 |
| D3_AM_WR |
1 |
| D3_PM_ER |
1 |
| D3_PM_ISLAND |
1 |
| D3_PM_KT |
1 |
| D3_PM_MOS |
1 |
| D3_PM_TC |
1 |
| D3_PM_TKO |
1 |
| D3_PM_TW |
1 |
| D3_PM_WR |
1 |
| DTU_2020_1007150_1_MG_RA_CPH_Sewage_494 |
1 |
| DTU_2020_1007153_1_MG_RA_CPH_Sewage_504 |
1 |
| DTU_2020_1007154_1_MG_RD_CPH_Sewage_505 |
1 |
| DTU_2020_1007157_1_MG_RD_CPH_Sewage_517 |
1 |
| DTU_2020_1007158_1_MG_RL_CPH_Sewage_518 |
1 |
| DTU_2020_1007160_1_MG_RD_CPH_Sewage_529 |
1 |
| DTU_2020_1007162_1_MG_RA_CPH_Sewage_536 |
1 |
| DTU_2020_1007165_1_MG_RA_CPH_Sewage_547 |
1 |
| DTU_2020_1007166_1_MG_RD_CPH_Sewage_548 |
1 |
| DTU_2020_1007167_1_MG_RA_CPH_Sewage_560 |
1 |
| DTU_2020_1007170_1_MG_RL_CPH_Sewage_571 |
1 |
| DTU_2020_1007173_1_MG_RL_CPH_Sewage_592 |
1 |
| DTU_2020_1007174_1_MG_RA_CPH_Sewage_593 |
1 |
| DTU_2020_1007175_1_MG_RD_CPH_Sewage_594 |
1 |
| DTU_2020_1007176_1_MG_RL_CPH_Sewage_597 |
1 |
| DTU_2020_1007177_1_MG_RD_CPH_Sewage_598 |
1 |
| DTU_2020_1007178_1_MG_RA_CPH_Sewage_600 |
1 |
| DTU_2020_1007179_1_MG_RD_CPH_Sewage_601 |
1 |
| DTU_2020_1007180_1_MG_RL_CPH_Sewage_602 |
1 |
| DTU_2020_1007181_1_MG_RA_CPH_Sewage_603 |
1 |
| DTU_2020_1007182_1_MG_RD_CPH_Sewage_604 |
1 |
| DTU_2020_1007183_1_MG_RL_CPH_Sewage_605 |
1 |
| DTU_2020_1007184_1_MG_RA_CPH_Sewage_606 |
1 |
| DTU_2020_1007185_1_MG_RD_CPH_Sewage_607 |
1 |
| DTU_2020_1007186_1_MG_RL_CPH_Sewage_608 |
1 |
| DTU_2020_1007187_1_MG_RA_CPH_Sewage_609 |
1 |
| DTU_2020_1007188_1_MG_RD_CPH_Sewage_610 |
1 |
| DTU_2020_1007189_1_MG_RL_CPH_Sewage_614 |
1 |
| DTU_2020_1007190_1_MG_RA_CPH_Sewage_615 |
1 |
| DTU_2020_1007191_1_MG_RD_CPH_Sewage_616 |
1 |
| DTU_2020_1007192_1_MG_RL_CPH_Sewage_617 |
1 |
| DTU_2020_1007193_1_MG_RA_CPH_Sewage_618 |
1 |
| DTU_2020_1007194_1_MG_RD_CPH_Sewage_619 |
1 |
| DTU_2020_1007195_1_MG_RL_CPH_Sewage_620 |
1 |
| DTU_2020_1007196_1_MG_RA_CPH_Sewage_621 |
1 |
| DTU_2020_1007197_1_MG_RD_CPH_Sewage_622 |
1 |
| DTU_2020_1007198_1_MG_RL_CPH_Sewage_623 |
1 |
| DTU_2020_1007199_1_MG_RA_CPH_Sewage_624 |
1 |
| DTU_2020_1007200_1_MG_RL_CPH_Sewage_625 |
1 |
| DTU_2020_1007201_1_MG_RA_CPH_Sewage_626 |
1 |
| DTU_2020_1007202_1_MG_RD_CPH_Sewage_627 |
1 |
| DTU_2020_1007203_1_MG_RL_CPH_Sewage_628 |
1 |
| DTU_2020_1007204_1_MG_RA_CPH_Sewage_629 |
1 |
| DTU_2020_1007205_1_MG_RD_CPH_Sewage_630 |
1 |
| DTU_2020_1007206_1_MG_RL_CPH_Sewage_631 |
1 |
| DTU_2020_1007207_1_MG_RA_CPH_Sewage_632 |
1 |
| DTU_2020_1007208_1_MG_RD_CPH_Sewage_633 |
1 |
| DTU_2020_1007209_1_MG_RL_CPH_Sewage_634 |
1 |
| DTU_2020_1007210_1_MG_RA_CPH_Sewage_635 |
1 |
| DTU_2020_1007211_1_MG_RD_CPH_Sewage_636 |
1 |
| DTU_2020_1007212_1_MG_RD_CPH_Sewage_637 |
1 |
| DTU_2020_1007213_1_MG_RA_CPH_Sewage_638 |
1 |
| DTU_2020_1007214_1_MG_RD_CPH_Sewage_639 |
1 |
| DTU_2020_1007215_1_MG_RL_CPH_Sewage_640 |
1 |
| DTU_2020_1007216_1_MG_RL_CPH_Sewage_642 |
1 |
| DTU_2020_1007217_1_MG_RD_CPH_Sewage_643 |
1 |
| DTU_2020_1007218_1_MG_RA_CPH_Sewage_645 |
1 |
| DTU_2020_1007219_1_MG_RL_CPH_Sewage_646 |
1 |
| DTU_2020_1007220_1_MG_RD_CPH_Sewage_647 |
1 |
| DTU_2020_1007221_1_MG_RA_CPH_Sewage_648 |
1 |
| DTU_2020_1007222_1_MG_RL_CPH_Sewage_649 |
1 |
| DTU_2020_1007223_1_MG_RD_CPH_Sewage_650 |
1 |
| DTU_2020_1007224_1_MG_RL_CPH_Sewage_651 |
1 |
| DTU_2020_1007225_1_MG_RD_CPH_Sewage_652 |
1 |
| DTU_2020_1007226_1_MG_RL_CPH_Sewage_653 |
1 |
| DTU_2020_1007227_1_MG_RL_CPH_Sewage_654 |
1 |
| DTU_2020_1007228_1_MG_RA_CPH_Sewage_655 |
1 |
| DTU_2020_1007229_1_MG_RD_CPH_Sewage_656 |
1 |
| DTU_2020_1007230_1_MG_RL_CPH_Sewage_662 |
1 |
| DTU_2020_1007231_1_MG_RA_CPH_Sewage_663 |
1 |
| DTU_2020_1007232_1_MG_RD_CPH_Sewage_664 |
1 |
| DTU_2020_1007233_1_MG_RL_CPH_Sewage_671 |
1 |
| DTU_2020_1007234_1_MG_RA_CPH_Sewage_672 |
1 |
| DTU_2020_1007235_1_MG_RD_CPH_Sewage_673 |
1 |
| DTU_2020_1007236_1_MG_RL_CPH_Sewage_683 |
1 |
| DTU_2020_1007237_1_MG_RA_CPH_Sewage_684 |
1 |
| DTU_2020_1007238_1_MG_RD_CPH_Sewage_685 |
1 |
| DTU_2020_1007239_1_MG_RL_CPH_Sewage_689 |
1 |
| DTU_2020_1007240_1_MG_RA_CPH_Sewage_690 |
1 |
| DTU_2020_1007241_1_MG_RD_CPH_Sewage_691 |
1 |
| DTU_2020_1007242_1_MG_RL_CPH_Sewage_695 |
1 |
| DTU_2020_1007243_1_MG_RA_CPH_Sewage_696 |
1 |
| DTU_2020_1007244_1_MG_RD_CPH_Sewage_697 |
1 |
| DTU_2020_1007245_1_MG_RL_CPH_Sewage_701 |
1 |
| DTU_2020_1007246_1_MG_RD_CPH_Sewage_703 |
1 |
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| DTU_2022_1025833_1_MG_EKU_RYN_032022 |
1 |
| DTU_2022_1025834_1_MG_TSH_RIET_032022 |
1 |
| DTU_2022_1025835_1_MG_TSH_ZEEK_032022 |
1 |
| DTU_2022_1025836_1_MG_EKU_TSA_042022 |
1 |
| DTU_2022_1025837_1_MG_EKU_RYN_042022 |
1 |
| DTU_2022_1025838_1_MG_TSH_RIET_042022 |
1 |
| DTU_2022_1025839_1_MG_TSH_ZEEK_042022 |
1 |
| DTU_2022_1025840_1_MG_EKU_TSA_052022 |
1 |
| DTU_2022_1025841_1_MG_EKU_RYN_052022 |
1 |
| DTU_2022_1025842_1_MG_TSH_RIET_052022 |
1 |
| Dakar, Senegal |
1 |
| Dunedin, New Zealand |
1 |
| EJH_MT_042220 |
1 |
| EJH_MT_042420 |
1 |
| EJH_MT_042720 |
1 |
| EJH_MT_042820 |
1 |
| EJH_MT_050320 |
1 |
| EJH_MT_050420 |
1 |
| EJH_MT_050520 |
1 |
| EJH_MT_051020 |
1 |
| EJH_MT_051120 |
1 |
| EJH_MT_051220 |
1 |
| EJH_MT_051820 |
1 |
| EJH_MT_051920 |
1 |
| EJH_MT_052720 |
1 |
| EJH_MT_052820 |
1 |
| EJH_MT_053020 |
1 |
| EJH_MT_053120 |
1 |
| EJH_MT_060120 |
1 |
| EJH_MT_060220 |
1 |
| EJH_MT_060320 |
1 |
| EJH_MT_060420 |
1 |
| EJH_MT_060520 |
1 |
| EJH_MT_060620 |
1 |
| EJH_MT_060720 |
1 |
| EJH_MT_060820 |
1 |
| EJH_MT_060920 |
1 |
| EJH_MT_061020 |
1 |
| EJH_MT_061120 |
1 |
| EJH_MT_061220 |
1 |
| EJH_MT_061320 |
1 |
| EJH_MT_061420 |
1 |
| EJH_MT_061520 |
1 |
| EJH_MT_061720 |
1 |
| EJH_MT_061820 |
1 |
| EJH_MT_061920 |
1 |
| EJH_MT_062020 |
1 |
| EJH_MT_062120 |
1 |
| EJH_MT_062220 |
1 |
| EJH_MT_062320 |
1 |
| EJH_MT_062420 |
1 |
| EJH_MT_062520 |
1 |
| EJH_MT_062720 |
1 |
| EJH_MT_062820 |
1 |
| EJH_MT_062920 |
1 |
| EJH_MT_063020 |
1 |
| EJH_MT_070120 |
1 |
| EJH_MT_070320 |
1 |
| EJH_MT_070420 |
1 |
| EJH_MT_070520 |
1 |
| EJH_MT_070720 |
1 |
| EJH_MT_070820 |
1 |
| EJH_MT_070920 |
1 |
| ESw5INH01 |
1 |
| ESw5INH02 |
1 |
| ESw5INH03 |
1 |
| ESw5INH04 |
1 |
| ESw5INH05 |
1 |
| ESw5INH06 |
1 |
| ESw5INH07 |
1 |
| ESw5INH08 |
1 |
| ESw5INH09 |
1 |
| ESw5INH10 |
1 |
| ESw5INH11 |
1 |
| ESw5INH12 |
1 |
| ESw5INH15 |
1 |
| ESw5INH16 |
1 |
| ESw5INH18 |
1 |
| ESw5INH19 |
1 |
| ESw5INH22 |
1 |
| ESw5INH23 |
1 |
| ESw5INH24 |
1 |
| ESw5INH27 |
1 |
| ESw5INH29 |
1 |
| ESw5INH30 |
1 |
| ESw5INH31 |
1 |
| ESw5INH32 |
1 |
| Ectomycorrhizal soil fungal communities in Stand 100 Tree1 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 100 Tree2 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 100 Tree3 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 100 Tree4 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 100 Tree5 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 20 Tree1 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 20 Tree2 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 20 Tree3 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 20 Tree4 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 20 Tree5 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 22 Tree1 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 22 Tree2 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 22 Tree3 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 22 Tree4 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 22 Tree5 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 24 Tree1 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 24 Tree2 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 24 Tree3 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 24 Tree4 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 24 Tree5 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 3 Tree1 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 3 Tree2 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 3 Tree3 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 3 Tree4 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 3 Tree5 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 31 Tree1 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 31 Tree2 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 31 Tree3 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 31 Tree4 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 31 Tree5 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 41 Tree1 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 41 Tree2 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 41 Tree4 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 41 Tree5 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 50 Tree1 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 50 Tree2 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 50 Tree3 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 50 Tree4 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 50 Tree5 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 58 Tree1 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 58 Tree2 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 58 Tree3 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 58 Tree4 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 58 Tree5 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 6 Tree1 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 6 Tree2 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 6 Tree3 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 6 Tree4 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 6 Tree5 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 7 Tree1 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 7 Tree2 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 7 Tree3 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 7 Tree4 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 7 Tree5 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 9 Tree1 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 9 Tree2 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 9 Tree3 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 9 Tree4 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| Ectomycorrhizal soil fungal communities in Stand 9 Tree5 of the Manistee Inorganic Nitrogen Gradient Project. |
1 |
| El Paso,TX, USA |
1 |
| End testing |
1 |
| Fensom sample, mineral layer, OM0C0 treatment, replicate 1 |
1 |
| Fensom sample, mineral layer, OM0C0 treatment, replicate 2 |
1 |
| Fensom sample, mineral layer, OM0C0 treatment, replicate 3 |
1 |
| Fensom sample, mineral layer, OM1C0 treatment, replicate 1 |
1 |
| Fensom sample, mineral layer, OM1C0 treatment, replicate 2 |
1 |
| Fensom sample, mineral layer, OM1C0 treatment, replicate 3 |
1 |
| Fensom sample, mineral layer, OM2C0 treatment, replicate 1 |
1 |
| Fensom sample, mineral layer, OM2C0 treatment, replicate 2 |
1 |
| Fensom sample, mineral layer, OM2C0 treatment, replicate 3 |
1 |
| Fensom sample, mineral layer, OM3C0 treatment, replicate 1 |
1 |
| Fensom sample, mineral layer, OM3C0 treatment, replicate 2 |
1 |
| Fensom sample, mineral layer, OM3C0 treatment, replicate 3 |
1 |
| Fensom sample, organic layer, OM0C0 treatment, replicate 1 |
1 |
| Fensom sample, organic layer, OM0C0 treatment, replicate 2 |
1 |
| Fensom sample, organic layer, OM0C0 treatment, replicate 3 |
1 |
| Fensom sample, organic layer, OM1C0 treatment, replicate 1 |
1 |
| Fensom sample, organic layer, OM1C0 treatment, replicate 2 |
1 |
| Fensom sample, organic layer, OM1C0 treatment, replicate 3 |
1 |
| Fensom sample, organic layer, OM2C0 treatment, replicate 1 |
1 |
| Fensom sample, organic layer, OM2C0 treatment, replicate 2 |
1 |
| Fensom sample, organic layer, OM2C0 treatment, replicate 3 |
1 |
| Flat Centered-204-Organic |
1 |
| Flat Centered-210-Mineral |
1 |
| Flat Centered-210-Organic |
1 |
| Flat Centered-214-Mineral |
1 |
| Flat Centered-214-Organic |
1 |
| Freshwater metagenome from Attersee Lake, Austria; 150m depth, 24oct2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Attersee Lake, Austria; 5m depth, 24oct2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Greifensee Lake, Austria; 20m depth, 7nov2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Greifensee Lake, Austria; 5m depth, 7nov2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Ikeda Lake, Japan; 100m depth, 17sep2015, filtersize 0.22 um |
1 |
| Freshwater metagenome from Ikeda Lake, Japan; 150m depth, 17sep2015, filtersize 0.22 um |
1 |
| Freshwater metagenome from Ikeda Lake, Japan; 200m depth, 17sep2015, filtersize 0.22 um |
1 |
| Freshwater metagenome from Ikeda Lake, Japan; 50m depth, 17sep2015, filtersize 0.22 um |
1 |
| Freshwater metagenome from Ikeda Lake, Japan; 5m depth, 17sep2015, filtersize 0.22 um |
1 |
| Freshwater metagenome from Jiricka Lake, Czechia; 1m depth, 19feb2018, filtersize 0.22 um |
1 |
| Freshwater metagenome from Lake Attersee, Austria; 150 m depth, 03-May-2019 |
1 |
| Freshwater metagenome from Lake Attersee, Austria; 5 m depth, 03-May-2019 |
1 |
| Freshwater metagenome from Lake Greifensee, Switzerland; 5 m depth, 03-Apr-2019 |
1 |
| Freshwater metagenome from Lake Lugano, Italy; 5 m depth, 02-Apr-2019 |
1 |
| Freshwater metagenome from Lake Lugano, Italy; 50 m depth, 02-Apr-2019 |
1 |
| Freshwater metagenome from Lake Maggiore, Italy; 300 m depth, 09-Apr-2019 |
1 |
| Freshwater metagenome from Lake Maggiore, Italy; 5 m depth, 09-Apr-2019 |
1 |
| Freshwater metagenome from Lake Medard, Czechia; 20 m depth, 09-Apr-2019 |
1 |
| Freshwater metagenome from Lake Medard, Czechia; 20 m depth, 09-Jul-2019 |
1 |
| Freshwater metagenome from Lake Medard, Czechia; 5 m depth, 09-Apr-2019 |
1 |
| Freshwater metagenome from Lake Medard, Czechia; 5 m depth, 09-Jul-2019 |
1 |
| Freshwater metagenome from Lake Milada, Czechia; 15 m depth, 16-Apr-2019 |
1 |
| Freshwater metagenome from Lake Milada, Czechia; 15 m depth, 22-Jul-2019 |
1 |
| Freshwater metagenome from Lake Milada, Czechia; 5 m depth, 16-Apr-2019 |
1 |
| Freshwater metagenome from Lake Milada, Czechia; 5 m depth, 22-Jul-2019 |
1 |
| Freshwater metagenome from Lake Mondsee, Austria; 40 m depth, 02-May-2019 |
1 |
| Freshwater metagenome from Lake Mondsee, Austria; 5 m depth, 02-May-2019 |
1 |
| Freshwater metagenome from Lake Most, Czechia; 5 m depth, 30-Apr-2019 |
1 |
| Freshwater metagenome from Lake Most, Czechia; 5 m depth, 30-Jul-2019 |
1 |
| Freshwater metagenome from Lake Most, Czechia; 50 m depth, 30-Jul-2019 |
1 |
| Freshwater metagenome from Lake Most, Czechia; 60 m depth, 30-Apr-2019 |
1 |
| Freshwater metagenome from Lake Thun, Switzerland; 5 m depth, 08-Apr-2019 |
1 |
| Freshwater metagenome from Lake Thun, Switzerland; 5 m depth, June-2018 |
1 |
| Freshwater metagenome from Lake Traunsee, Austria; 5 m depth, 03-May-2019 |
1 |
| Freshwater metagenome from Lake Traunsee, Austria; 90 m depth, 03-May-2019 |
1 |
| Freshwater metagenome from Lake Zurich, Switzerland; 80 m depth, 03-Apr-2019 |
1 |
| Freshwater metagenome from Lugano Lake, Italy; 50m depth, 5nov2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Lugano Lake, Italy; 5m depth, 5nov2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Maggiore Lake, Italy; 100m depth, 17oct2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Maggiore Lake, Italy; 300m depth, 17oct2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Maggiore Lake, Italy; 300m depth, 4nov2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Maggiore Lake, Italy; 5m depth, 17oct2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Maggiore Lake, Italy; 5m depth, 4nov2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Medard Lake, Czechia; 30m depth, 21oct2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Medard Lake, Czechia; 5m depth, 21oct2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Milada Lake, Czechia; 15m depth, 14oct2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Milada Lake, Czechia; 5m depth, 14oct2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Mondsee Lake, Austria; 40m depth, 23oct2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Mondsee Lake, Austria; 5m depth, 23oct2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Most Lake, Czechia; 5m depth, 1oct2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Most Lake, Czechia; 60m depth, 1oct2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Thun Lake, Switzerland; 180m depth, 11nov2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Thun Lake, Switzerland; 180m depth, 5oct2018, filtersize 0.22 um |
1 |
| Freshwater metagenome from Thun Lake, Switzerland; 5m depth, 11nov2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Traunsee Lake, Austria; 150m depth, 25oct2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Traunsee Lake, Austria; 5m depth, 25oct2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Zurich Lake, Switzerland; 0.5m depth, 15may2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Zurich Lake, Switzerland; 5m depth, 11jul2018, filtersize 0.22 um |
1 |
| Freshwater metagenome from Zurich Lake, Switzerland; 5m depth, 13nov2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Zurich Lake, Switzerland; 5m depth, 15may2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Zurich Lake, Switzerland; 80m depth, 13nov2019, filtersize 0.22 um |
1 |
| Freshwater metagenome from Zurich Lake, Switzerland; 80m depth, 15may2019, filtersize 0.22 um |
1 |
| Freshwater metagenomes from Jiricka pond, Czech Republic; 0.5m depth, 07aug2017, filtersize 0.22um |
1 |
| Freshwater metagenomes from Jiricka pond, Czech Republic; 0.5m depth, 11may2016, filtersize 0.22um |
1 |
| Freshwater metagenomes from Jiricka pond, Czech Republic; 0.5m depth, 25may2017, filtersize 0.22um |
1 |
| Freshwater metagenomes from Jiricka pond, Czech Republic; 0.5m depth, 28aug2017, filtersize 0.22um |
1 |
| Freshwater metagenomes from Jiricka pond, Czech Republic; 0.5m depth, 28jun2017, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 0.5m depth, 04nov2015, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 0.5m depth, 09nov2016, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 0.5m depth, 14apr2017, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 0.5m depth, 15aug2016, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 0.5m depth, 16jun2015, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 0.5m depth, 18aug2017, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 0.5m depth, 20apr2016, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 0.5m depth, 23may2017, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 0.5m depth, 26jul2017, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 0.5m depth, 27jun2017, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 30m depth, 09nov2016, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 30m depth, 14apr2017, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 30m depth, 15aug2016, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 30m depth, 18aug2017, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 30m depth, 20apr2016, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 30m depth, 23may2017, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 30m depth, 26jul2017, filtersize 0.22um |
1 |
| Freshwater metagenomes from Rimov resevoir, Czech Republic; 30m depth, 27jun2017, filtersize 0.22um |
1 |
| Galway, Ireland |
1 |
| Gotheborg, Sweden |
1 |
| Guangzhou, China |
1 |
| H1R:Horse River oil sands outcrops collected from inside the river |
1 |
| HEPA debris |
1 |
| HEPA debris PMA treated |
1 |
| Helsinki, Finland |
1 |
| Herrenschwanden, Switzerland |
1 |
| High Centered-50-Organic |
1 |
| High Centered-53-Mineral |
1 |
| High Centered-53-Organic |
1 |
| Ho Chi Minh, Vietnam |
1 |
| Horse River oil sands outcrops collected from the cliff next to the river |
1 |
| Ibadan, Nigeria |
1 |
| Inoculum |
1 |
| Iowa, Continuous corn soil metagenome reference core |
1 |
| Iowa, Native Prairie soil metagenome reference core |
1 |
| Jerusalem, Israel |
1 |
| Johannesburg, South Africa |
1 |
| Kansas, Cultivated corn soil metagenome reference core |
1 |
| Kansas, Native Prairie metagenome reference core |
1 |
| Karachi, Pakistan |
1 |
| Kathmandu, Nepal |
1 |
| Kefir |
1 |
| Keywords: GSC:MIxS;MIMAG:6.0 |
1 |
| Kitwe, Zambia |
1 |
| Kurth sample, mineral layer, OM0C0 treatment, replicate 1 |
1 |
| Kurth sample, mineral layer, OM0C0 treatment, replicate 2 |
1 |
| Kurth sample, mineral layer, OM0C0 treatment, replicate 3 |
1 |
| Kurth sample, mineral layer, OM1C0 treatment, replicate 1 |
1 |
| Kurth sample, mineral layer, OM1C0 treatment, replicate 2 |
1 |
| Kurth sample, mineral layer, OM1C0 treatment, replicate 3 |
1 |
| Kurth sample, mineral layer, OM2C0 treatment, replicate 1 |
1 |
| Kurth sample, mineral layer, OM2C0 treatment, replicate 2 |
1 |
| Kurth sample, mineral layer, OM3C0 treatment, replicate 1 |
1 |
| Kurth sample, mineral layer, OM3C0 treatment, replicate 2 |
1 |
| Kurth sample, mineral layer, OM3C0 treatment, replicate 3 |
1 |
| Kurth sample, organic layer, OM0C0 treatment, replicate 1 |
1 |
| Kurth sample, organic layer, OM0C0 treatment, replicate 2 |
1 |
| Kurth sample, organic layer, OM0C0 treatment, replicate 3 |
1 |
| Kurth sample, organic layer, OM1C0 treatment, replicate 1 |
1 |
| Kurth sample, organic layer, OM1C0 treatment, replicate 2 |
1 |
| Kurth sample, organic layer, OM1C0 treatment, replicate 3 |
1 |
| Kurth sample, organic layer, OM2C0 treatment, replicate 1 |
1 |
| Kurth sample, organic layer, OM2C0 treatment, replicate 2 |
1 |
| Kurth sample, organic layer, OM2C0 treatment, replicate 3 |
1 |
| Kurth sample, organic layer, OM3C0 treatment, replicate 1 |
1 |
| Kurth sample, organic layer, OM3C0 treatment, replicate 2 |
1 |
| Kurth sample, organic layer, OM3C0 treatment, replicate 3 |
1 |
| Lake Ekoln |
1 |
| Lake Erken |
1 |
| Lake Limmaren |
1 |
| Lake L�ngsj�n |
1 |
| Lake Michigan sediment collected in the middle of the lake, station 11 |
1 |
| Lake Michigan sediment collected in the middle of the lake, station 18 |
1 |
| Lake Michigan sediment collected in the middle of the lake, station 41 |
1 |
| Lake Michigan sediment in site 1 near Manitocwoc WWTP |
1 |
| Lake Michigan sediment in site 10 near Manitocwoc WWTP |
1 |
| Lake Michigan sediment in site 11 near Manitocwoc WWTP |
1 |
| Lake Michigan sediment in site 12 near Manitocwoc WWTP |
1 |
| Lake Michigan sediment in site 13 near Manitocwoc WWTP |
1 |
| Lake Michigan sediment in site 14 near Manitocwoc WWTP |
1 |
| Lake Michigan sediment in site 2 near Sheboygan WWTP |
1 |
| Lake Michigan sediment in site 3 near Manitocwoc WWTP |
1 |
| Lake Michigan sediment in site 3 near Sheboygan WWTP |
1 |
| Lake Michigan sediment in site 4 near Manitocwoc WWTP |
1 |
| Lake Michigan sediment in site 4 near Sheboygan WWTP |
1 |
| Lake Michigan sediment in site 5 near Manitocwoc WWTP |
1 |
| Lake Michigan sediment in site 5 near Sheboygan WWTP |
1 |
| Lake Michigan sediment in site 6 near Sheboygan WWTP |
1 |
| Lake Michigan sediment in site 7 near Manitocwoc WWTP |
1 |
| Lake Michigan sediment in site 8 near Manitocwoc WWTP |
1 |
| Lake Michigan sediment in site 9 near Manitocwoc WWTP |
1 |
| Lake M�laren (Drottingholm) |
1 |
| Lake Norrviken |
1 |
| Lake Rotsee, in situ water column sample (9m) |
1 |
| Lake Rotsee, water column sample (9m), methane-supplemented light incubation (11 days) |
1 |
| Lake Rotsee, water column sample (9m), oxygen- and methane-supplemented dark incubation (11 days) |
1 |
| Lake Trehorningen |
1 |
| Lake Valentuna |
1 |
| Lake Zug, in situ water column sample (160 m) |
1 |
| Lake Zug, water column (160m), nitrate- and methane-supplemented dark incubation (16 days) |
1 |
| Lake Zug, water column (160m), oxygen- and methane-supplemented dark incubation (11 days) |
1 |
| Lima, Peru |
1 |
| Ljubljana, Slovenia |
1 |
| Lome, Togo |
1 |
| Low Centered-405-Mineral |
1 |
| Low Centered-405-Organic |
1 |
| Low Centered-408.5-Mineral |
1 |
| Low Centered-408.5-Organic |
1 |
| Low Centered-411-Organic |
1 |
| Low Centered-415-Organic |
1 |
| Lusaka, Zambia |
1 |
| MIS.2016.135 DNA sample btw tents, ucore |
1 |
| Manitowoc wastewater treatment plant effluent (1.6um filter) |
1 |
| Melbourne, Australia |
1 |
| Metagenomic sample from cyanide and thiocyanate bioreactor used to study SCN- and CN- degradation by established microbial consortia |
1 |
| Metagenomic sample from thiocyanate bioreactor used to study SCN- and CN- degradation by established microbial consortia |
1 |
| Microbial communities from bioreactor (seeded with sewage sludge) at LBNL, California, USA - Biofuel metagenome 4 |
1 |
| Microbial communities from bioreactor (seeded with sewage sludge) at Lawrence Berkeley National Lab, California, USA - Biofuel Metagenome 8 |
1 |
| Microbial communities from bioreactor (seeded with sewage sludge) at Lawrence Berkeley National Lab, California, USA - Biofuel Metagenome 9 |
1 |
| Microflume Sediment SMX time 0 |
1 |
| Microflume Sediment SMX time 18 |
1 |
| Microflume Sediment SMX time 7 |
1 |
| Microflume Sediment control time 0 |
1 |
| Microflume Sediment control time 18 |
1 |
| Microflume Sediment control time 7 |
1 |
| Microflume Water SMX time 0 |
1 |
| Microflume Water SMX time 18 |
1 |
| Microflume Water SMX time 7 |
1 |
| Microflume Water control time 0 |
1 |
| Microflume Water control time 18 |
1 |
| Microflume Water control time 7 |
1 |
| Mixed microbial community from sediment metagenome at 25 cm below sea floor from Baltic Sea Basin (Little Belt, Denmark) |
1 |
| Moshi, Tanzania |
1 |
| Mosquera, Colombia |
1 |
| NICU room sample S2_003_000_R1 |
1 |
| NICU room sample S2_003_000_R2 |
1 |
| NICU room sample S2_003_000_R3 |
1 |
| NICU room sample S2_005_001_R1 |
1 |
| NICU room sample S2_005_001_R2 |
1 |
| NICU room sample S2_005_001_R3 |
1 |
| NICU room sample S2_005_002_R1 |
1 |
| NICU room sample S2_005_002_R2 |
1 |
| NICU room sample S2_005_002_R3 |
1 |
| NICU room sample S2_005_003_R1 |
1 |
| NICU room sample S2_005_003_R2 |
1 |
| NICU room sample S2_005_003_R3 |
1 |
| NICU room sample S2_006_000_R1 |
1 |
| NICU room sample S2_006_000_R2 |
1 |
| NICU room sample S2_006_000_R3 |
1 |
| NICU room sample S2_009_000_R1 |
1 |
| NICU room sample S2_009_000_R2 |
1 |
| NICU room sample S2_009_000_R3 |
1 |
| NICU room sample S2_012_000_R1 |
1 |
| NICU room sample S2_012_000_R2 |
1 |
| NICU room sample S2_012_000_R3 |
1 |
| NICU room sample S2_018_000_R1 |
1 |
| NICU room sample S2_018_000_R2 |
1 |
| NICU room sample S2_018_000_R3 |
1 |
| NT+AMF-1 |
1 |
| NT+AMF-2 |
1 |
| NT+AMF-3 |
1 |
| NT-AMF-1 |
1 |
| NT-AMF-2 |
1 |
| NT-AMF-3 |
1 |
| NTF_0-15_1 |
1 |
| NTF_0-15_2 |
1 |
| NTF_0-15_3 |
1 |
| NTF_15-30_1 |
1 |
| NTF_15-30_2 |
1 |
| NTF_15-30_3 |
1 |
| NTJ_0-15_1 |
1 |
| NTJ_0-15_2 |
1 |
| NTJ_0-15_3 |
1 |
| NTJ_15-30_1 |
1 |
| NTJ_15-30_2 |
1 |
| NTJ_15-30_3 |
1 |
| NTM_0-15_1 |
1 |
| NTM_0-15_2 |
1 |
| NTM_0-15_3 |
1 |
| NTM_15-30_1 |
1 |
| NTM_15-30_2 |
1 |
| NTM_15-30_3 |
1 |
| NTM_R_1 |
1 |
| NTM_R_2 |
1 |
| NTM_R_3 |
1 |
| Nairobi, Kenya |
1 |
| Naphthaline degrading microbial community from Northern Alberta Oil Sands |
1 |
| NextSeq1 was a re-sequence of some samples from ELF001A. This was a new negative control for this sequencing run. |
1 |
| Northern Alberta (northwest of Edmonton) coal bed cutting |
1 |
| Oil seeps ecosystem from Coal Oil Point, Santa Barbara, California, USA - Sample 1. |
1 |
| Oil seeps ecosystem from Coal Oil Point, Santa Barbara, California, USA - Sample 2 |
1 |
| Oil seeps ecosystem from Coal Oil Point, Santa Barbara, California, USA - Sample 3 |
1 |
| Oslo, Norway |
1 |
| Ottawa, Canada |
1 |
| OutsideFarm_10_2018-10-01 |
1 |
| OutsideFarm_11_2018-10-03 |
1 |
| OutsideFarm_12_2018-10-06 |
1 |
| OutsideFarm_13_2018-10-07 |
1 |
| OutsideFarm_1_2018-09-05 |
1 |
| OutsideFarm_2_2018-09-10 |
1 |
| OutsideFarm_3_2018-09-11 |
1 |
| OutsideFarm_4_2018-09-12 |
1 |
| OutsideFarm_5_2018-09-17 |
1 |
| OutsideFarm_6_2018-09-20 |
1 |
| OutsideFarm_7_2018-09-22 |
1 |
| OutsideFarm_8_2018-09-24 |
1 |
| OutsideFarm_9_2018-09-28 |
1 |
| Palapye, Botswana |
1 |
| Phnom Penh, Cambodia |
1 |
| Portland, OR, USA |
1 |
| Pristina, Kosovo |
1 |
| Processed in the lab with sample 119B from 355 cm in ELF059A. Sequenced in NextSeq run 3. |
1 |
| Produced water sample 10PW from MHGC oil field |
1 |
| Produced water sample from MHGC oil field |
1 |
| Pulawy, Poland |
1 |
| Quito, Ecuador |
1 |
| Raw shotgun metagenomic sequencing reads and assembled metagenome generated from cultures of two groups of one dollar bills collected in October 2013 from a bank in New York City |
1 |
| Raw shotgun metagenomic sequencing reads and assembled metagenome generated from one dollar bills collected in February 2012 from a bank in New York City |
1 |
| Raw shotgun metagenomic sequencing reads and assembled metagenome generated from one dollar bills collected in June 2013 from a bank in New York City |
1 |
| Regina, Canada |
1 |
| Reykjavik, Iceland |
1 |
| Riga, Latvia |
1 |
| River sediment time 0 |
1 |
| River water time 0 |
1 |
| Rome, Italy |
1 |
| S replicate 1 |
1 |
| S replicate 2 |
1 |
| S replicate 3 |
1 |
| S+R replicate 1 |
1 |
| S+R replicate 2 |
1 |
| S+R replicate 3 |
1 |
| SAF vacuum cleaner bag debris |
1 |
| SAF vacuum cleaner bag debris PMA treated |
1 |
| SR-VP_26_10_2019_1_100cm |
1 |
| SR-VP_26_10_2019_1_90cm |
1 |
| SR-VP_26_10_2019_2_100cm |
1 |
| SR-VP_26_10_2019_2_90cm |
1 |
| SR-VP_26_10_2019_B_20cm |
1 |
| SR-VP_26_10_2019_B_35cm |
1 |
| SR-VP_26_10_2019_B_40cm |
1 |
| SR-VP_26_10_2019_C_20cm |
1 |
| SR-VP_26_10_2019_C_30cm |
1 |
| SR-VP_26_10_2019_C_40cm |
1 |
| SRVP18_core_1_35-25cm |
1 |
| SRVP18_core_1_40-35cm |
1 |
| SRVP18_hole-7m-from-trench_1_20cm |
1 |
| SRVP18_hole-7m-from-trench_1_80cm |
1 |
| SRVP18_poolMud_2_bottom |
1 |
| SRVP18_trench_1_20cm |
1 |
| SRVP18_trench_1_45cm |
1 |
| SRVP18_trench_2_20cm |
1 |
| SRVP18_trench_2_45cm |
1 |
| SRVP18_trench_3_20cm |
1 |
| SRVP18_trench_3_45cm |
1 |
| SRVP18_trench_4_45cm |
1 |
| SRVP18_trench_5_20cm |
1 |
| SRVP18_trench_5_45cm |
1 |
| SRVP18_trench_6_20cm |
1 |
| SRVP18_trench_6_60cm |
1 |
| SRVP18_trench_7_20cm |
1 |
| SRVP18_trench_7_45cm |
1 |
| SRVP18_trench_8_20cm |
1 |
| San Cristobal Island, Galapagos, Ecuador |
1 |
| San Juan basin coalbed production water |
1 |
| Seattle,WA, USA |
1 |
| Sediment sample, 0-2cm, site 1326, Fall 2011 |
1 |
| Sediment sample, 0-2cm, site 1326, Fall 2011 (reanalyzed) |
1 |
| Sediment sample, 0-2cm, site 1326, Fall 2013 |
1 |
| Sediment sample, 0-2cm, site 1326, Spring 2012 |
1 |
| Sediment sample, 0-2cm, site 1367, Fall 2011 |
1 |
| Sediment sample, 0-2cm, site 1367, Fall 2012 (realnalyzed) |
1 |
| Sediment sample, 0-2cm, site 1367, Fall 2013 |
1 |
| Sediment sample, 0-2cm, site 1367, Fall 2013 (reanalyzed) |
1 |
| Sediment sample, 0-2cm, site 1367, Spring 2012 |
1 |
| Sediment sample, 0-2cm, site 1367, Spring 2012 (reanalyzed) |
1 |
| Sediment sample, 0-2cm, site 198, Fall 2011 |
1 |
| Sediment sample, 0-2cm, site 379, Fall 2011 |
1 |
| Sediment sample, 0-2cm, site 444, Fall 2011 |
1 |
| Sediment sample, 0-2cm, site 444, Fall 2013 |
1 |
| Sediment sample, 0-2cm, site 498, Fall 2011 |
1 |
| Sediment sample, 0-2cm, site 498, Fall 2013 |
1 |
| Sediment sample, 0-2cm, site 498, Spring 2012 |
1 |
| Sediment sample, 0-2cm, site 902, Fall 2011 |
1 |
| Sediment sample, 0-2cm, site 902, Fall 2013 |
1 |
| Sediment sample, 0-2cm, site 902, Spring 2012 |
1 |
| Sediment sample, 0-2cm, site 910, Fall 2011 |
1 |
| Sediment sample, 0-2cm, site 910, Fall 2011 (reanalyzed) |
1 |
| Sediment sample, 0-2cm, site 910, Fall 2013 |
1 |
| Sediment sample, 0-2cm, site 910, Fall 2013 (reanalyzed) |
1 |
| Sediment sample, 0-2cm, site 910, Spring 2012 |
1 |
| Sediment sample, 0-2cm, site H01, Fall 2011 |
1 |
| Sediment sample, 0-2cm, site H01, Spring 2012 |
1 |
| Sediment sample, 0-2cm, site LTM-M, Spring 2012 |
1 |
| Sediment sample, 2-4cm, site H01, Fall 2011 |
1 |
| Sediment sample, 4-8cm, site H01, Fall 2011 |
1 |
| Sediment sample, 8-12cm, site 1326, Fall 2011 |
1 |
| Sediment sample, 8-12cm, site 1326, Fall 2013 |
1 |
| Sediment sample, 8-12cm, site 1326, Spring 2012 |
1 |
| Sediment sample, 8-12cm, site 1367, Fall 2011 |
1 |
| Sediment sample, 8-12cm, site 1367, Fall 2013 |
1 |
| Sediment sample, 8-12cm, site 1367, Spring 2012 |
1 |
| Sediment sample, 8-12cm, site 444, Fall 2013 |
1 |
| Sediment sample, 8-12cm, site 498, Fall 2013 |
1 |
| Sediment sample, 8-12cm, site 902, Fall 2013 (reanalyzed) |
1 |
| Sediment sample, 8-12cm, site 910, Fall 2011 |
1 |
| Sediment sample, 8-12cm, site 910, Fall 2013 |
1 |
| Sediment sample, 8-12cm, site 910, Spring 2012 |
1 |
| Sediment sample, 8-12cm, site H01, Fall 2011 |
1 |
| Sediment sample, 8-12cm, site H01, Spring 2012 |
1 |
| Sediment-free, anaerobic methane-oxidizing enrichment incubated at 20 degC with methane and sulfate |
1 |
| Sediment-free, anaerobic methane-oxidizing enrichment incubated at 37 degC with methane and sulfate |
1 |
| Sediment-free, anaerobic methane-oxidizing enrichment incubated at 60 degC with methane and sulfate |
1 |
| Sheboygan wastewater treatment plant effluent (1.6um filter) |
1 |
| Singapore, Singapore |
1 |
| Skopje, Republic of Macedonia |
1 |
| Sofia, Bulgaria |
1 |
| Soil microbial communities from Rifle, Colorado, USA - sediment 16ft 4 |
1 |
| South Adams County, CO, USA |
1 |
| St. Venera, Malta |
1 |
| Start bioreactor flow through |
1 |
| Summer Baihe Central deposit 1 |
1 |
| Summer Baihe Central deposit 2 |
1 |
| Summer Baihe Central deposit 3 |
1 |
| Summer Baihe Central deposit 4 |
1 |
| Summer Baihe Central deposit 5 |
1 |
| Summer Baihe Riparian 1 |
1 |
| Summer Baihe Riparian 2 |
1 |
| Summer Baihe Riparian 3 |
1 |
| Summer Baihe Riparian 4 |
1 |
| Summer Baihe Riparian 5 |
1 |
| Summer Caohe Central deposit 1 |
1 |
| Summer Caohe Central deposit 2 |
1 |
| Summer Caohe Central deposit 3 |
1 |
| Summer Caohe Central deposit 4 |
1 |
| Summer Caohe Central deposit 5 |
1 |
| Summer Caohe Riparian 1 |
1 |
| Summer Caohe Riparian 2 |
1 |
| Summer Caohe Riparian 3 |
1 |
| Summer Caohe Riparian 4 |
1 |
| Summer Caohe Riparian 5 |
1 |
| Summer Jumahe Central deposit 1 |
1 |
| Summer Jumahe Central deposit 2 |
1 |
| Summer Jumahe Central deposit 3 |
1 |
| Summer Jumahe Central deposit 4 |
1 |
| Summer Jumahe Central deposit 5 |
1 |
| Summer Jumahe Riparian 1 |
1 |
| Summer Jumahe Riparian 2 |
1 |
| Summer Jumahe Riparian 3 |
1 |
| Summer Jumahe Riparian 4 |
1 |
| Summer Jumahe Riparian 5 |
1 |
| Summer Tanghe Central deposit 1 |
1 |
| Summer Tanghe Central deposit 2 |
1 |
| Summer Tanghe Central deposit 3 |
1 |
| Summer Tanghe Central deposit 4 |
1 |
| Summer Tanghe Central deposit 5 |
1 |
| Summer Tanghe Riparian 1 |
1 |
| Summer Tanghe Riparian 2 |
1 |
| Summer Tanghe Riparian 3 |
1 |
| Summer Tanghe Riparian 4 |
1 |
| Summer Tanghe Riparian 5 |
1 |
| Summer Zhulonghe Central deposit 1 |
1 |
| Summer Zhulonghe Central deposit 2 |
1 |
| Summer Zhulonghe Central deposit 3 |
1 |
| Summer Zhulonghe Central deposit 4 |
1 |
| Summer Zhulonghe Central deposit 5 |
1 |
| Summer Zhulonghe Riparian 1 |
1 |
| Summer Zhulonghe Riparian 2 |
1 |
| Summer Zhulonghe Riparian 3 |
1 |
| Summer Zhulonghe Riparian 4 |
1 |
| Summer Zhulonghe Riparian 5 |
1 |
| Surface cryosoil from Kamchatka - BGG_COSDC |
1 |
| Surface cryosoil from Kamchatka - BGG_DOSDC |
1 |
| Surface cryosoil from Kamchatka - BGG_EOSDC |
1 |
| Syncrude tailing pond surface water |
1 |
| Syncrude tailings sample taken from the pipe transfering tailings from Mildred Lake to West In-Pit (not stored before DNA extracted) |
1 |
| TH-Jun18 metagenome |
1 |
| Tamale, Ghana |
1 |
| Tar lake microbial comunities from La Brea, Trinidad and Tobago |
1 |
| Tbilisi, Georgia |
1 |
| Tehran, Iran |
1 |
| Tirana, Albania |
1 |
| Toluene degrading microbial community from hydrocarbon contaminated site |
1 |
| Toronto, Canada |
1 |
| Transfer of Short chain n-alkane (C6- C10) degrading methanogenic enrichment culture |
1 |
| Transfer of coal-degrading methanogenic enrichment culture, grown with coal and tryptone, harvested after 7 days incubation |
1 |
| TxAntibiotic_10_2018-10-03 |
1 |
| TxAntibiotic_11_2018-10-04 |
1 |
| TxAntibiotic_12_2018-10-05 |
1 |
| TxAntibiotic_1_2018-09-06 |
1 |
| TxAntibiotic_2_2018-09-07 |
1 |
| TxAntibiotic_3_2018-09-13 |
1 |
| TxAntibiotic_4_2018-09-14 |
1 |
| TxAntibiotic_5_2018-09-19 |
1 |
| TxAntibiotic_6_2018-09-20 |
1 |
| TxAntibiotic_7_2018-09-21 |
1 |
| TxAntibiotic_8_2018-09-26 |
1 |
| TxAntibiotic_9_2018-09-29 |
1 |
| Uppsala, Sweden |
1 |
| Vienna, Austria |
1 |
| Wells sample, mineral layer, OM0C0 treatment, replicate 1 |
1 |
| Wells sample, mineral layer, OM0C0 treatment, replicate 2 |
1 |
| Wells sample, mineral layer, OM0C0 treatment, replicate 3 |
1 |
| Wells sample, mineral layer, OM1C0 treatment, replicate 1 |
1 |
| Wells sample, mineral layer, OM1C0 treatment, replicate 2 |
1 |
| Wells sample, mineral layer, OM1C0 treatment, replicate 3 |
1 |
| Wells sample, mineral layer, OM2C0 treatment, replicate 1 |
1 |
| Wells sample, mineral layer, OM2C0 treatment, replicate 2 |
1 |
| Wells sample, mineral layer, OM2C0 treatment, replicate 3 |
1 |
| Wells sample, mineral layer, OM3C0 treatment, replicate 1 |
1 |
| Wells sample, mineral layer, OM3C0 treatment, replicate 2 |
1 |
| Wells sample, mineral layer, OM3C0 treatment, replicate 3 |
1 |
| Wells sample, organic layer, OM0C0 treatment, replicate 1 |
1 |
| Wells sample, organic layer, OM0C0 treatment, replicate 2 |
1 |
| Wells sample, organic layer, OM0C0 treatment, replicate 3 |
1 |
| Wells sample, organic layer, OM1C0 treatment, replicate 1 |
1 |
| Wells sample, organic layer, OM1C0 treatment, replicate 2 |
1 |
| Wells sample, organic layer, OM1C0 treatment, replicate 3 |
1 |
| Wells sample, organic layer, OM2C0 treatment, replicate 1 |
1 |
| Wells sample, organic layer, OM2C0 treatment, replicate 2 |
1 |
| Wells sample, organic layer, OM2C0 treatment, replicate 3 |
1 |
| White microbial mat communities from a lava cave in the Kipuka Kanohina Cave System on the Island of Hawaii, USA |
1 |
| Winter Baihe Central deposit 1 |
1 |
| Winter Baihe Central deposit 2 |
1 |
| Winter Baihe Central deposit 3 |
1 |
| Winter Baihe Central deposit 4 |
1 |
| Winter Baihe Central deposit 5 |
1 |
| Winter Baihe Riparian 1 |
1 |
| Winter Baihe Riparian 2 |
1 |
| Winter Baihe Riparian 3 |
1 |
| Winter Baihe Riparian 4 |
1 |
| Winter Baihe Riparian 5 |
1 |
| Winter Caohe Central deposit 1 |
1 |
| Winter Caohe Central deposit 2 |
1 |
| Winter Caohe Central deposit 3 |
1 |
| Winter Caohe Central deposit 4 |
1 |
| Winter Caohe Central deposit 5 |
1 |
| Winter Caohe Riparian 1 |
1 |
| Winter Caohe Riparian 2 |
1 |
| Winter Caohe Riparian 3 |
1 |
| Winter Caohe Riparian 4 |
1 |
| Winter Caohe Riparian 5 |
1 |
| Winter Jumahe Central deposit 1 |
1 |
| Winter Jumahe Central deposit 2 |
1 |
| Winter Jumahe Central deposit 3 |
1 |
| Winter Jumahe Central deposit 4 |
1 |
| Winter Jumahe Central deposit 5 |
1 |
| Winter Jumahe Riparian 1 |
1 |
| Winter Jumahe Riparian 2 |
1 |
| Winter Jumahe Riparian 3 |
1 |
| Winter Jumahe Riparian 4 |
1 |
| Winter Jumahe Riparian 5 |
1 |
| Winter Tanghe Central deposit 1 |
1 |
| Winter Tanghe Central deposit 2 |
1 |
| Winter Tanghe Central deposit 3 |
1 |
| Winter Tanghe Central deposit 4 |
1 |
| Winter Tanghe Central deposit 5 |
1 |
| Winter Tanghe Riparian 1 |
1 |
| Winter Tanghe Riparian 2 |
1 |
| Winter Tanghe Riparian 3 |
1 |
| Winter Tanghe Riparian 4 |
1 |
| Winter Tanghe Riparian 5 |
1 |
| Winter Zhulonghe Central deposit 1 |
1 |
| Winter Zhulonghe Central deposit 2 |
1 |
| Winter Zhulonghe Central deposit 3 |
1 |
| Winter Zhulonghe Central deposit 4 |
1 |
| Winter Zhulonghe Central deposit 5 |
1 |
| Winter Zhulonghe Riparian 1 |
1 |
| Winter Zhulonghe Riparian 2 |
1 |
| Winter Zhulonghe Riparian 3 |
1 |
| Winter Zhulonghe Riparian 4 |
1 |
| Winter Zhulonghe Riparian 5 |
1 |
| Wisconsin, Continuous corn soil metagenome reference core |
1 |
| Wisconsin, Restored Prairie soil metagenome reference core |
1 |
| Woden, Australia |
1 |
| ZE_Oct18 metagenome |
1 |
| ZH-Jul18 metagenome |
1 |
| ZH_Oct18 metagenome |
1 |
| Zagreb, Croatia |
1 |
| agousha (from Russia) |
1 |
| apple cider vinegar (from Ireland) |
1 |
| beet kvass (from Ireland) |
1 |
| beetroot kvass (from Ireland) |
1 |
| biomass for DNA extraction day1 (enriched anammox seed sludge for reactor start-up) |
1 |
| biomass for DNA extraction day204 |
1 |
| biomass for DNA extraction day210 |
1 |
| biomass for DNA extraction day213 |
1 |
| biomass for DNA extraction day261 |
1 |
| boza (from UK) |
1 |
| bread kvass (from Russia) |
1 |
| brown rice amazake (from Japan) |
1 |
| brussel sprout kimchi (from Ireland) |
1 |
| carrot kimchi (from UK) |
1 |
| carrot sticks (from Ireland) |
1 |
| cherry water kefir (from Ireland) |
1 |
| coconut kefir (from Ireland) |
1 |
| cryoconite sampled 10 meters from DS-1 |
1 |
| cryoconite sampled 10 meters from DS-2 |
1 |
| cryoconite sampled 10 meters from KAN-P-A2 |
1 |
| cryoconite sampled 10 meters from KAN-P-A3 |
1 |
| cryoconite sampled 10 meters from QAS-L1 |
1 |
| cryoconite sampled 10 meters from QAS-L2 |
1 |
| cryoconite sampled 10 meters from THU-1 |
1 |
| cryoconite sampled 10 meters from THU-2 |
1 |
| cryoconite sampled 20 cm from TAS-L-A1a |
1 |
| cryoconite sampled 20 cm from TAS-L-A1b |
1 |
| cryoconite sampled 20 cm from TAS-L-A2a |
1 |
| cryoconite sampled 20 cm from TAS-L-A2b |
1 |
| cryoconite sampled 20 cm from TAS-L-A3a |
1 |
| cryoconite sampled 20 cm from TAS-L-A3b |
1 |
| cryoconite sampled 20 cm from TAS-L-B1a |
1 |
| cryoconite sampled 20 cm from TAS-L-B1b |
1 |
| cryoconite sampled 20 cm from TAS-L-B2a |
1 |
| cryoconite sampled 20 cm from TAS-L-B2b |
1 |
| cryoconite sampled 20 cm from TAS-L-B3a |
1 |
| cryoconite sampled 20 cm from TAS-L-B3b |
1 |
| cryoconite sampled 20 cm from TAS-L-C1a |
1 |
| cryoconite sampled 20 cm from TAS-L-C1b |
1 |
| cryoconite sampled 20 cm from TAS-L-C2a |
1 |
| cryoconite sampled 20 cm from TAS-L-C2b |
1 |
| cryoconite sampled 20 cm from TAS-L-C3a |
1 |
| cryoconite sampled 20 cm from TAS-L-C3b |
1 |
| cryoconite sampled 20 cm from TAS-U-A1a |
1 |
| cryoconite sampled 20 cm from TAS-U-A1b |
1 |
| cryoconite sampled 20 cm from TAS-U-A2a |
1 |
| cryoconite sampled 20 cm from TAS-U-A2b |
1 |
| cryoconite sampled 500 meters from KAN-P-A and KAN-P-C |
1 |
| cryoconite sampled 500 meters from KAN-P-B and 1 km from KAN-P-A and 10 meters from KAN-P-C1 and KAN-P-C3 |
1 |
| cryoconite sampled 500 meters from KAN-P-B and 1 km from KAN-P-A and 10 meters from KAN-P-C2 |
1 |
| cryoconite sampled 500 meters from KAN-P-B and 1 km from KAN-P-A and 10 meters from KAN-P-C2 and 20 meters from KAN-P-C1 |
1 |
| cucumber (from UK) |
1 |
| daikon (from China) |
1 |
| daikon radish in 2% brine (from Ireland) |
1 |
| dill dearg (from Ireland) |
1 |
| dilly carrots (from Ireland) |
1 |
| dukkah kraut (from Ireland) |
1 |
| first dive |
1 |
| garlic kraut (from Ireland) |
1 |
| ginger beer (from UK) |
1 |
| ginger sliced in 2% brine (from Ireland) |
1 |
| golden child (from Ireland) |
1 |
| green tomatoes and mustard seeds in 2% brine (from Ireland) |
1 |
| hight air flow |
1 |
| kefir and fennel soup (from Ireland) |
1 |
| kombucha vinegar (from Ireland) |
1 |
| krauthehi (from Germany) |
1 |
| labne (from Ireland) |
1 |
| lemon and ginger fizz (from Ireland) |
1 |
| mINHES035 |
1 |
| mINHES036 |
1 |
| mead (from Ireland) |
1 |
| milk kefir (from UK) |
1 |
| municipality channel receiving biologically treated HWW |
1 |
| okra in 2% brine (from Ireland) |
1 |
| orange (from UK) |
1 |
| pasterised milk kefir (from Ireland) |
1 |
| pickled vegetables (from China) |
1 |
| ransfer of coal-degrading methanogenic enrichment culture amended with coal and tryptone, harvested on day 16. |
1 |
| raw milk kefir (from Ireland) |
1 |
| raw sauerkraut and juniper berries (from Ireland) |
1 |
| river receiving treated wastewater |
1 |
| rostagro kport voro nyj (from Russia) |
1 |
| ruza (from Russia) |
1 |
| ryazhenka (from Russia) |
1 |
| scallion kimchi (from Ireland) |
1 |
| second dive |
1 |
| street gutter, water |
1 |
| tap water |
1 |
| tempeh (from UK) |
1 |
| tepache (from Mexico) |
1 |
| time point 1 / A; 0.1 filter |
1 |
| time point 1 / A; 0.2 filter |
1 |
| time point 2 / B; 0.1 filter |
1 |
| time point 2 / B; 0.2 filter |
1 |
| time point 3 / C; 0.1 filter |
1 |
| time point 3 / C; 0.2 filter |
1 |
| time point 4 / D; 0.1 filter |
1 |
| time point 4 / D; 0.2 filter |
1 |
| time point 5 / E; 0.1 filter |
1 |
| time point 5 / E; 0.2 filter |
1 |
| time point 6 / F; 0.1 filter |
1 |
| time point 6 / F; 0.2 filter |
1 |
| tofu chilli (from China) |
1 |
| turnip (from UK) |
1 |
| vacuum cleaner bag debris |
1 |
| vacuum cleaner bag debris PMA treated |
1 |
| wagashi core (from Benin) |
1 |
| wagashi rind (from Benin) |
1 |
| wastewater treatment plant inflow metagenome |
1 |
| water kefir (from UK) |
1 |
| water kefir (with pear, ginger and honey) (from Ireland) |
1 |
| water kefir (with pear, ginger and sugar) (from Ireland) |
1 |
| water kefir ginger (from Ireland) |
1 |
| water kefir hibiscus (from Ireland) |
1 |
| water kefir lemon (from Ireland) |
1 |
| water used for handwashing |
1 |
| well water, drinking |
1 |
| wetland receiving treated wastewater |
1 |