DPANN Archaea from Vázquez-Campos et al (2021)

The order Anstonellales is circumscribed based on two independent concatenated protein phylogenies of 122 and 93 markers, and supported by the rank normalisation approach as per Parks et al. (2018). It constitutes the most inclusive clade that includes the families Anstonellaceae, and Bilamarchaeaceae. The type genus is Anstonella.
The order is equivalent to the lineage LFWA-IIIc in this manuscript, and o__UBA10214 in the GTDB r89/r202 (Parks et al., 2017).

The order Burarchaeales is circumscribed based on two independent concatenated protein phylogenies of 122 and 93 markers, and supported by the rank normalisation approach as per Parks et al. (2018). The description is the same as that of its sole genus and species. The type genus is Burarchaeum.
The order is equivalent to LFWA-IIIc in this manuscript and o__B9-G16 in GTDB r202 (Parks et al., 2017).

The order Gugararchaeales is circumscribed based on two independent concatenated protein phylogenies of 122 and 93 markers, and supported by the rank normalisation approach as per Parks et al. (2018). The description is the same as that of its sole genus and species. The type genus is Gugararchaeum. The order is equivalent to LFWA-IIIa in this manuscript and appears as o__CABMDC01 in GTDB r202 (Parks et al., 2017).

The order Norongarragalinales is circumscribed based on two independent concatenated protein phylogenies of 122 and 93 markers, and supported by the rank normalisation approach as per Parks et al. (2018). The description is the same as that of its sole genus and species. The type genus is Norongarragalina. This order is equivalent to LFWA-II in this manuscript, and o__UBA8480 in GTDB r89/r202 (Parks et al., 2017).

The order Tiddalikarchaeales is circumscribed based on two independent concatenated protein phylogenies of 122 and 93 markers, and supported by the rank normalisation approach as per Parks et al. (2018). The description is the same as that of its sole genus and species. The type genus is Tiddalikarchaeum.
The order is equivalent to CG07-land from Probst et al. (2018) or o__CG07-land in GTDB r89/r202 (Parks et al., 2017).

The family Anstonellaceae is circumscribed based on two independent concatenated protein phylogenies of 122 and 93 markers, and supported by the rank normalisation approach as per Parks et al. (2018). The description is the same as that of its sole genus and species. The type genus is Anstonella.
This family is equivalent to f__UBA10161 in the GTDB r89/r202 (Parks et al., 2017).

The family Bilamarchaeaceae is circumscribed based on two independent concatenated protein phylogenies of 122 and 93 markers, and supported by the rank normalisation approach as per Parks et al. (2018). The description is the same as that of its sole genus and species. The type genus is Bilamarchaeum.
This family is equivalent to f__UBA10214 in the GTDB r89/r202 (Parks et al., 2017).

The family Burarchaeaceae is circumscribed based on two independent concatenated protein phylogenies of 122 and 93 markers, and supported by the rank normalisation approach as per Parks et al. (2018). The description is the same as that of its sole genus and species. The type genus is Burarchaeum.
The family is equivalent to f__B9-G16 in GTDB r202 (Parks et al., 2017).

The family Gugararchaeaceae is circumscribed based on two independent concatenated protein phylogenies of 122 and 93 markers, and supported by the rank normalisation approach as per Parks et al. (2018). The description is the same as that of its sole genus and species. The type genus is Gugararchaeum.
The family appears in GTDB r202 (Parks et al., 2017) as f__CABMDC01.

The family Norongarragalinaceae is circumscribed based on two independent concatenated protein phylogenies of 122 and 93 markers, and supported by the rank normalisation approach as per Parks et al. (2018). The description is the same as that of its sole genus and species. The type genus is Norongarragalina.
This family is equivalent to f__0-14-0-20-59-11 in the GTDB r89/r202 (Parks et al., 2017).

The family Tiddalikarchaeaceae is circumscribed based on two independent concatenated protein phylogenies of 122 and 93 markers, and supported by the rank normalisation approach as per Parks et al. (2018). The description is the same as that of its sole genus and species. The type genus is Tiddalikarchaeum.
The family is equivalent to f__CG07-land in GTDB r89/r202 (Parks et al., 2017).

The type species is Anstonella stagnisolia. The genus appears as g__CABMCJ01 in GTDB r202 (Parks et al., 2017).

The type species is Bilamarchaeum dharawalense. The genus appears as g__CAILMU01 in GTDB r202 (Parks et al., 2017).

The type species is Burarchaeum australiense. The genus appears as g__CABMJK01 in GTDB r202 (Parks et al., 2017).

The type species is Gugararchaeum adminiculabundum. The genus appears as g__CABMDC01 in GTDB r202 (Parks et al., 2017).

The type species is Norongarragalina meridionalis. This genus is equivalent to g__0-14-0-20-59-11 in GTDB r89/r202 (Parks et al., 2017).

The type species is Tiddalikarchaeum anstoanum. The genus appears as g__CABMEV01 in GTDB r202 (Parks et al., 2017).

The type material is the metagenome assembled genome (MAG) LFW-35 (ERS2655287) recovered from the groundwater of the Little Forest Legacy Site (NSW, Australia). The MAG consists of 1.33 Mbp in 68 contigs with an estimated completeness of 97.8%, redundancy of 2.2%, 16S, 23S and 5S rRNA gene, and 21 tRNAs. The GC content of this MAG is 50.3%.
The type material appears in GTDB r202 (Parks et al., 2017) as reference for s__CABMCJ01 sp902384585.

The type material is the metagenome assembled genome (MAG) LFW-283_2 (ERS2655319) recovered from the groundwater of the Little Forest Legacy Site (NSW, Australia). The MAG consists of 1.27 Mbp in 63 contigs with an estimated completeness of 95.7%, redundancy of 0%, 16S, 23S and 5S rRNA gene, and 20 tRNAs. The GC content of this MAG is 40.0%.
The type material appears in GTDB r202 (Parks et al., 2017) as reference for s__CAILMU01 sp902386555.

The type material is the metagenome assembled genome (MAG) LFW-281_7 (ERS2655318) recovered from the groundwater of the Little Forest Legacy Site (NSW, Australia). The MAG consists of 1.20 Mbp in 76 contigs with an estimated completeness of 96.8%, redundancy of 5.4%, 16S and 5S rRNA gene, and 18 tRNAs. The GC content of this MAG is 57.6%.
The type material appears in GTDB r202 (Parks et al., 2017) as reference for s__CABMJK01 sp902386535.

The type material is the metagenome assembled genome (MAG) LFW-121_3 (ERS2655302) recovered from the groundwater of the Little Forest Legacy Site (NSW, Australia). The MAG consists of 1.47 Mbp in 76 contigs with an estimated completeness of 96.8%, redundancy of 2.2%, 16S, 23S, and 5S rRNA gene, and 21 tRNAs. The GC content of this MAG is 49.8%.
The type material appears in GTDB r202 (Parks et al., 2017) as reference for s__CABMDC01 sp902384795.

The type material is the metagenome assembled genome (MAG) LFW-144_1 (ERS2655293) recovered from the groundwater of the Little Forest Legacy Site (NSW, Australia). The MAG consists of 0.93 Mbp in 49 contigs with an estimated completeness of 93.5%, redundancy of 1.1%, 16S and 5S rRNA gene, and 20 tRNAs. The GC content of this MAG is 57.5%.
The type material appears in GTDB r202 (Parks et al., 2017) as reference for s__0-14-0-20-59-11 sp902384935.

The type material is the metagenome assembled genome (MAG) LFW-252_1 (ERS2655302) recovered from the groundwater of the Little Forest Legacy Site (NSW, Australia). The MAG consists of 1.16 Mbp in 56 contigs with an estimated completeness of 95.7%, redundancy of 1.1%, 16S, 23S, and 5S rRNA gene, and 21 tRNAs. The GC content of this MAG is 36.5%.
 The type material appears in GTDB r202 (Parks et al., 2017) as reference for s__CABMEV01 sp902385255.