bluuebunny/crossref_metadata_2025_split huggingface dataset:
POLÍTICA E ESTRATÉGIA DE SAÚDE PARA O DESENVOLVIMENTO DA AMAZÔNIA
Authors: Ferraroni José João 
Published: December 2020

Avalia-se a situação sanitária e os níveis de saúde da população amazônica. Ênfase especial é dada às grandes endemias e à maneira com que estas vêm sendo conduzidas pelo serviço de saúde pública nos últimos anos.
Verifica-se que, em termos de saúde, o povo amazônico é muito pobre, pouco recebe dos serviços assistenciais de saúde, fazendo com que a mortalidade infantil se equivalha à dos Estados Unidos á 72 anos atrás. A expectativa de vida do homem amazônico é de 15 anos menos que a da população do sul do país, colocando a região em nível de igualdade com os países menos desenvolvidos do mundo.
A malária e a hepatite têm aumentado sua prevalência em determinadas áreas da região nos últimos anos, e continuam sem efetivo controle pelo governo. Não existe um projeto global, a longo prazo, para erradicação e controle das grandes endemias da Amazônia. A saúde não é assunto prioritário para a região e parece não haver vontade política para mudar o panorama atual. A crise política e econômica pela qual o país está atravessando acentua mais ainda o problema.
Um projeto de saúde é apresentado no sentido de incrementar o desenvolvimento da Amazônia, no período de uma década. Detalham-se as estratégias de implantação de uma política, que vão desde a formação de recursos humanos regionalizados, saneamento básico, serviços integrados de saúde, orientação de termos de medicina popular até o combate à desnutrição.
A saúde deve ser entendida como riqueza de um povo, e, em assim sendo, tem influência direta na economia e segurança nacionais. Há necessidade de que o governo e a sociedade iniciem e comecem a pensar em colocar saúde na Expressão Econômica e não só na Expressão Psicossocial do Poder Nacional.
PHRASAL VERBS, COMPOSICIONALIDADE E IDIOMATICIDADE
Authors: Silva Natália , Almeida Sandra 
Published: December 2020

Este trabalho aborda os phrasal verbs à luz da Linguística Cognitiva (LANGACKER, 2008), no que tange a aspectos metonímicos e metafóricos (LAKOFF; JOHNSON, 1980). As noções de composicionalidade (FILLMORE, 1979; GOLDBERG, 1995, 2006; LANGACKER, 2008) e metaforicidade (LAKOFF; JOHNSON, 1980; LAKOFF, 1987; JOHNSON, 1987; LAKOFF; TURNER, 1989) são analisadas com base nos dados coletados de um corpus de inglês americano (COCA, 2017). Demonstramos que alguns PVs retêm o significado de suas partes, enquanto outros PVs exibem significados que envolvem extensão semântica (GOLDBERG, 1995, 2006) por meio de projeções entre esquemas imagéticos (JOHNSON, 1987), integrando mais de uma ação ou evento, que só podem ser compreendidas em uma perspectiva discursiva e (inter)subjetiva (TRAUGOTT; DASHER, 2005).
Los itinerarios lectores en Gran Canaria: propuesta editorial innovadora
Authors: Sánchez García Miguel 
Published: December 2020

<p><span>En este artículo exponemos las características y posibilidades relacionadas con la dinamización lectora que ofrecen las rutas literarias. Esta estrategia permite, a través de la visita a lugares que forman parte de obras literarias, vincular más al lector con el texto. Para ello nos centramos en la experiencia realizada por Bilenio Publicaciones, una editorial radicada en Las Palmas de Gran Canaria y que desde año 2010 viene desarrollando esta propuesta como complemento a la publicación de algunos de sus libros ambientados en la isla de Gran Canaria con resultados muy positivos. El alumnado (la experiencia se realiza fundamentalmente con alumnado de ESO) muestra una gran satisfacción, pues la lectura de las obras se ve reforzada con una experiencia que contextualiza el espacio vital de las obras leídas. </span></p>
Atomic Layer Deposition
Authors: Ghazaryan Lilit , Pfeiffer Kristin , Schmitt Paul , Beladiya Vivek , Kund Stefan , Szeghalmi Adriana 
Published: December 2020

Abstract
Atomic layer deposition (ALD) is a key coating technology which enables conformal coatings on high aspect ratio substrates. In addition, it allows for a precise thickness control of thin films, multilayers, and nanolaminates. It is a chemical coating technology where the precursors are introduced sequentially in the reactor or are spatially separated. Herein, basic principles of ALD are introduced, reactor geometries are overviewed, and typical ALD materials and applications are summarized. ALD thin films are one pillar of modern computer technologies where ultra‐thin, conformal coatings with exceptional physical, electrical, and chemical properties are essential. Numerous emerging applications have been demonstrated and some are already in mass‐production. Precursor and process development, tool design and engineering, extensive thin‐film optimization, the search for better materials and composites combined with expert knowledge in the application fields have led to this success.
Simulation of Nitride Semiconductor MOVPE
Authors: Ohkawa Kazuhiro 
Published: December 2020

AbstractThis article seeks to help readers understand the MOVPE growth of nitride semiconductors as a part of science. MOVPE is the abbreviation for metalorganic vapor‐phase epitaxy. Therefore, the precursors used are metalorganic gases and ammonia. The precursors decompose or react with others in the gas phase. The obtained reactive molecules form semiconductor layers on substrates. Those growth reaction pathways and the polymer formation will be discussed numerically for GaN, InN, InGaN, AlN, and AlGaN in this article. For those materials, the numerical analyses of growth rate and alloy composition exhibited the qualitative and quantitative agreements with experiments. The reader can see the growth mechanism, and experts will understand the current MOVPE conditions of nitride semiconductors.
Desulfovibrionaceae
Authors: Galushko Alexander , Kuever Jan 
Published: December 2020

Abstract

De.sul.fo.vi.bri.o.na.ce'ae. N.L. masc. n.
Desulfovibrio
, type genus of the family; suff. ‐
aceae
, ending to denote a family; N.L. fem. pl. n.
Desulfovibrionaceae
, the family of
Desulfovibrio
.

Desulfobacterota / Desulfovibrionia / Desulfovibrionales / Desulfovibrionaceae

Cells are vibrio or rod shaped and occur singly or in pairs. Gram‐stain‐negative. Endospores are not observed. Motile or nonmotile. Strict anaerobes with respiratory and fermentative types of metabolism. Chemoorganoheterotrophs (all members), chemolithoheterotrophs (most members) and chemolithoautotrophs (few members). Simple organic compounds such as lactate, pyruvate, fumarate (most members), succinate (most members), and malate (most members) can serve as sole electron donors and carbon sources and are oxidized to acetate. Some members use amino acids and sugars. Alcohols are used only as electron donors and oxidized to their corresponding carboxylic acids. H
2
and CO
2
and formate can be used in the presence of acetate or yeast extract as carbon sources (all members), the reductive glycine pathway can be used for autotrophic growth (a few members). The common electron acceptor for most members is sulfate, which is reduced to sulfide; thiosulfate, sulfite, or sulfur (often without growth) might be used as well.
Lawsonia
spp. are intracellular parasites that can grow only in complex media and cannot use inorganic sulfur compounds as terminal electron acceptors. Some members can grow by reduction of nitrate or fumarate to ammonia and succinate, respectively. Reduction of other electron acceptors, such as oxygen (not linked to growth), Fe
3+
, DMSO, or others, might occur. Fermentation of pyruvate, fumarate, or other simple organic compounds is common. Growth by disproportionation of oxidized sulfur compounds might occur (chemolithoorganotrophic growth) but has rarely been tested. All species are mesophilic and contain desulfoviridin with the only exception of
Lawsonia
. Neutrophiles (most species), moderate alkaliphiles, and acidophiles may occur. The family currently accommodates 25 genera. Members of this family are found in various anoxic habitats.

DNA G+C content (mol%)
: 33.1–70.0 (genome, LC,
T
m
).

Type genus
:
Desulfovibrio
Kluyver and van Niel 1936
AL
.
Desulfofabaceae
fam. nov.
Authors: Galushko Alexander , Kuever Jan 
Published: December 2020

Abstract

De.sul.fo.fa.ba.ce'ae. N.L. fem. n.
Desulfofaba
, type genus of the family; suff. ‐
aceae
, ending to denote a family; N.L. fem. pl. n.
Desulfofabaceae
, the family of
Desulfofaba
.

Desulfobacterota / Desulfobacteria / Desulfobacterales / Desulfofabaceae fam. nov.

Cells are straight or curved, thick rods which occur singly or in pairs. Gram‐stain‐negative. Endospores are not observed. Motile. Strict anaerobes with respiratory and fermentative types of metabolism. Chemoorganoheterotrophic. Common substrates for the family are propionate and
n
‐propanol, which are used as sole electron donors and carbon sources and oxidized incompletely to acetate (other substrates used depend on the genus). Sulfate and sulfite are used as terminal electron acceptors and are reduced to sulfide. Mesophilic or psychrophilic; the optimal growth temperature range of the mesophiles is between 20 and 28°C; one species grows best at 7°C. Neutrophilic; the optimal pH for growth is around 7. The major menaquinone is MK‐8 (only known for one species). The family currently accommodates the genera
Desulfofaba
and “
Desulfoliva
”. The type species of the type genus was isolated from permanently cold marine sediment. Has currently been isolated from anoxic marine sediments.

DNA G + C content (mol%)
: 48.8, 53.0 (LC, genome).

Type genus
:
Desulfofaba
Knoblauch et al. 1999
VP
.
Schleiferiaceae
Authors: Albuquerque Luciana , Egas Conceição , da Costa Milton S. 
Published: December 2020

Abstract

Schlei.fe.ri.a.ce'ae. N.L. fem. n.
Schleiferia
type genus of the family; suff. ‐
aceae
ending to denote a family; N.L. fem. pl. n.
Schleiferiaceae
family of the genus
Schleiferia
.

Bacteroidetes / Flavobacteriia / Flavobacteriales / Schleiferiaceae

The family
Schleiferiaceae
is a member of the order
Flavobacteriales
. This family accommodates two genera,
Schleiferia,
composed of one validly published species named
Schleiferia thermophila
, and
Thermaurantimonas
, composed of one validly published species named
Thermaurantimonas aggregans
. Cells are rod shaped that are nonmotile. The organisms stain Gram‐negative and endospores are not observed. The organisms are slightly thermophilic and strictly aerobic. Grow in complex media with neutral pH. Carbohydrates, organic acids, and amino acids are used as carbon and energy sources. The major respiratory quinone is menaquinone 6 (MK‐6). The polar lipid profile is dominated by phosphatidylethanolamine (PE), unidentified aminolipids (ALs), and unidentified lipids (ULs). The predominant fatty acids are iso‐branched and hydroxy fatty acids. Isolated from hydrothermal areas.

DNA G + C content (mol%)
: 42.8 (HPLC).

DNA G + C content (%)
: 42.6–42.9 (genome).

Type genus
:
Schleiferia
Albuquerque et al. 2011
VP
.
Thermohalobacteraceae
fam. nov.
Authors: Spring Stefan 
Published: December 2020

Abstract

Ther.mo.ha.lo.bac.te.ra.ce'ae. N.L. masc. n.
Thermohalobacter
, type genus of the family; suff.
‐aceae
, ending to denote a family; N.L. fem. pl. n.
Thermohalobacteraceae
, the
Thermohalobacter
family.

Firmicutes / Clostridia / Tissierellales / Thermohalobacteraceae fam. nov.

Free‐living bacteria that mainly occur in anoxic saline environments. Cells are not pigmented and have a Gram‐positive type of cell wall. Gram‐stain reaction can be negative or positive. Typically slender rod‐shaped cells that are motile by flagella. Several strains form heat‐resistant spores. Mainly euryhaline, moderately thermophilic and halophilic. Members of the family are strictly anaerobic bacteria that utilize carbohydrates or peptides by fermentation. Cellular fatty acid patterns are dominated by
iso
‐C
15:0
and
iso
‐C
15:0
DMA. The family currently accommodates members of the genera
Thermohalobacter
,
Caldisalinibacter
,
Caloranaerobacter
,
Brassicibacter
,
Sporosalibacterium
, and
Clostridiisalibacter
, which were previously affiliated with the family
Clostridiaceae
. The affiliation of novel species to this family depends on the phylogenetic position, which should be determined on the basis of comparative sequence analyses of 16S rRNA genes or genomes.

DNA G + C content (mol%):
28–33.

Type genus:
Thermohalobacter
Cayol et al. 2000.
Methanocorpusculum
Authors: Shao Nana , Akinyemi Taiwo S. , Whitman William B. 
Published: December 2020

AbstractMe.tha.no.cor.pus'cu.lum. N.L. neut. n.methanummethane; L. neut. n.corpusculuma particle; N.L. neut. n.Methanocorpusculuma methane‐producing particle.Halobacteriota / Methanomicrobia / Methanomicrobiales / Methanocorpusculaceae / MethanocorpusculumSmall, irregular cocci, <2 μm in diameter. Endospores not formed. Stain Gram‐negative. Lysed by detergent or hypotonic shock. Nonmotile or very weakly motile. Strictly anaerobic. Fastest growth at 30–37°C, pH near 7.0. No requirement of NaCl for growth but moderately NaCl tolerant, depending on the species. Energy production by reduction of CO2to CH4with H2, formate, and sometimes secondary alcohols as electron donors; acetate, methylamines, or methanol are not catabolized. Acetate and either yeast extract, peptones, or rumen fluid are required as carbon and nitrogen sources. Sulfide serves as a sulfur source. Occurs in sewage sludge digesters, anaerobic wastewater treatment plants, and anaerobic reactors.Methanocorpusculumis the only genus in the familyMethanocorpusculaceaeand currently comprises four species with validly published names.DNA G + C content (mol%): 49.8–52.4 (Genome).Type species:Methanocorpusculum parvumZellner et al. 1987, VL24.
Methanopyrus
Authors: Shao Nana , Akinyemi Taiwo S. , Whitman William B. 
Published: December 2020

Abstract

Me.tha.no.py'rus. N.L. neut. n.
methanum
methane; Gr. neut. n.
pyr
fire; N.L. masc. n.
Methanopyrus
the “methane fire” (the hyperthermophilic methanogen).

Euryarchaeota / Methanopyria / Methanopyrales / Methanopyraceae / Methanopyrus

Rod‐shaped cells, occurring singly and in chains, about 2–14 μm long and 0.5–0.7 μm wide. Nonsporulating. Cell division by septum formation. Cell wall consists of an inner pseudomurein layer and an outer proteinaceous S‐layer.
N
‐Acetylglucosamine is absent in pseudomurein. AB′B″C subunit pattern of the DNA‐dependent RNA polymerase. 2,3‐Di‐
O
‐phytanyl‐
sn
‐glycerol and 2,3‐di‐
O
‐geranylgeranyl‐
sn
‐glycerol present in the lipids. Gram‐stain‐positive. Obligately anaerobic. Hyperthermophilic, optimum growth temperature, 98–100°C; maximum, up to 116°C; minimum, 84°C. Growth between 2 and 45 g/l NaCl; optimum, 20–30 g/l NaCl. Growth between pH 5.5 and 7; optimum, pH near 6.5. Chemolithoautotrophic. Energy for growth is obtained by reduction of CO
2
to CH
4
using H
2
as the electron donor. Formate, acetate, methanol, methylamine, propanol,
l
(+)‐lactate, and glycerol are not used as electron donors for CH
4
formation. Epifluorescent at 420 nm. Cyclic 2,3‐diphosphoglycerate present intracellularly at high concentrations. Sulfur reduced to H
2
S, causing cell lysis. Currently, the family
Methanopyraceae
includes only a single genus and species
Methanopyrus kandleri
.

DNA G + C content (mol%)
: 59 (
T
m
), 60 (LC), 61.2 (genome).

Type species
:
Methanopyrus kandleri
Kurr et al. 1991, VL41.
Desulforapulum
gen. nov.
Authors: Galushko Alexander , Kuever Jan 
Published: December 2020

Abstract

De.sul.fo.ra'pu.lum
. L. pref.
de
, from; L. neut. n.
sulfur
, sulfur; N.L. pref.
desulfo
‐, prefix used to characterize a dissimilatory sulfate‐reducing prokaryote; L. neut. n.
rapulum
, little turnip; N.L. neut. n.
Desulforapulum
, sulfate‐reducing body.

Desulfobacterota / Desulfobacteria / Desulfobacterales / Desulfobacteraceae / Desulforapulum gen. nov.

Oval‐shaped rods, 1.0–1.5 × 1.5–2.5 μm. Occur singly or in pairs. Spore formation is not observed. Gram stain negative. Motile with a single polar flagellum. Strictly anaerobic, having respiratory and fermentative types of metabolism. Chemoorganotrophic, using formate, C
2
–C
16
straight‐chain fatty acids, some short branched‐chain fatty acids, lactate, pyruvate, succinate, fumarate, malate, glutamate, ethanol, and higher alcohols as carbon sources and electron donors. Electron donors are completely oxidized to CO
2
via the anaerobic C
1
‐pathway (carbon monoxide dehydrogenase [CODH] or Wood–Ljungdahl pathway). Growth on acetate and propionate is slow. For growth on H
2
+ CO
2
, acetate is not required (chemolithoautotrophic growth). Sulfate and thiosulfate serve as terminal electron acceptors and are reduced to sulfide. Fermentative growth on lactate, pyruvate, fumarate, and malate. Mesophilic; optimal growth temperature is 25–28°C. Neutrophilic; optimum pH for growth is 6.7. Media containing a reductant are necessary for growth. Anoxic media (with sulfide as a reductant) and vitamins are required for growth.
Desulforapulum
species require brackish or marine concentrations of NaCl and MgCl
2
. Cells contain cytochromes of the
b
‐ and
c
‐types and menaquinone MK‐7. The genus
Desulforapulum
contains one described species and is found in brackish or marine sediments.

DNA G + C content (mol%)
: 48.8 (genome).

Type species
:
Desulforapulum autotrophicum
comb. nov. (Basonym:
Desulfobacterium autotrophicum
Brysch et al. 1987, VL26).
Desulfosudis
gen. nov.
Authors: Galushko Alexander , Kuever Jan 
Published: December 2020

Abstract

De.sul.fo.su'dis. L. pref.
de
‐, from; L. neut. n.
sulfur
, sulfur; N.L. pref.
desulfo
‐, desulfuricating; L. fem. n.
sudis
, stake, pile; N.L. fem. n.
Desulfosudis
, a sulfate‐reducing stick or rod.

Desulfobacterota / Desulfobacteria / Desulfobacterales / Desulfosudaceae / Desulfosudis gen. nov.

Cells are rod shaped, 0.4–0.5 × 0.8–2.0 μm. Occur singly or in pairs. Spore formation is not observed. Cells stain Gram‐negative. The cells are nonmotile. Strict anaerobes with a respiratory type of metabolism. Chemoorganoheterotrophs, using alkanes and short‐ and long‐chain fatty acids, which are completely oxidized to CO
2
via the anaerobic C
1
pathway (carbon monoxide dehydrogenase [CODH] or Wood–Ljungdahl pathway). Sulfate serves as the terminal electron acceptor and is reduced to sulfide; other electron acceptors have not been tested. Fermentation does not occur. Mesophilic. The optimal temperature for growth is 28°C. Neutrophilic. The optimal pH for growth is 7.0–7.4. Growth occurs in simple, defined media containing a reductant (usually sulfide) and vitamin B
12
. Occur in anoxic mud of oil production sites, oil‐polluted anoxic marine sediment, and microbial mats.

DNA G + C content (mol%)
: 56.2 (genome).

Type species
:
Desulfosudis oleivorans
.
“
Desulfostilus
” gen. nov.
Authors: Galushko Alexander , Kuever Jan 
Published: December 2020

Abstract

De.sul.fo.sti'lus. L. pref.
de
, from; L. neut. n.
sulfur
, sulfur; N.L. pref.
desulfo
‐, prefix used to characterize a dissimilatory sulfate‐reducing prokaryote; L. masc. n.
stilus
, pen; N.L. masc. n.
Desulfostilus
, sulfate‐reducing pen.

Desulfobacterota / Desulfobulbia / Desulfobulbales / Desulfocapsaceae / Desulfostilus gen. nov.

Rod‐shaped cells, 0.5 × 2.0–4.0 μm. Occur singly or in pairs. Spore formation is not observed. Gram‐stain‐negative. Under most conditions, only a few cells are motile. Metabolism is strictly anaerobic. Chemolithoautotrophic, using inorganic partially reduced sulfur compounds as electron donors and electron acceptors in fermentative type of metabolism (disproportionation). For disproportionation of sulfur to sulfate and sulfide, ferric iron is required to scavenge dissolved sulfide. CO
2
serves as carbon source and is assimilated via the anaerobic C
1
‐pathway (carbon monoxide dehydrogenase [CODH] or Wood–Ljungdahl pathway) as indicated from genome data. Sulfate cannot serve as a terminal electron acceptor. H
2
and CO
2
allowed growth with sulfur as electron acceptor. Fermentative growth with organic compounds is not observed. Mesophilic, with an optimal growth temperature of 30°C. Neutrophilic, with the optimal growth at pH 6.7–7.3. Anoxic media without a reductant and at least 1.5 g NaCl and 0.4 g MgCl
2
× 6H
2
O per liter are necessary for growth. Vitamins or yeast extract is not required. The genus
“
Desulfostilus
”
contains one described species.
Desulfostilus
‐like organisms occur close to oxic/anoxic interface in diverse marine systems. However, because the type strain is no longer available in two culture collections, the new name can not be validly published.

DNA G + C content (mol%)
: 45.4 (genome).

Type species
:
“
Desulfostilus sulfexigens
”
comb. nov. (basonym:
Desulfocapsa sulfexigens
Finster et al. 1998, VL76).
Humidesulfovibrio
Authors: Galushko Alexander , Kuever Jan 
Published: December 2020

Abstract

Hu.mi.de.sul.fo.vi'bri.o. L. fem. n.
humus
, the earth, soil; N.L. masc. n.
Desulfovibrio
, a bacterial genus name; N.L. masc. n.
Humidesulfovibrio
, a
Desulfovibrio
‐like bacterium from the soil.

Desulfobacterota / Desulfovibrionia / Desulfovibrionales / Desulfovibrionaceae / Humidesulfovibrio

Cells are vibrio shaped, 0.4–0.5 × 1.0–4.0 μm. Occur singly or in pairs. Spore formation is not observed. Stain Gram‐negative. Cells are motile by a single polar flagellum. Strictly anaerobic, having both a respiratory and a fermentative type of metabolism. Chemoorganoheterotrophs, using lactate, pyruvate, ethanol (two species), and certain amino acids (one species) as electron donors and carbon sources; organic compounds are incompletely oxidized to acetate. H
2
can be used as electron donor in the presence of acetate as organic carbon source (chemolithoheterotrophic growth). Formate is also used in the presence of acetate. Sulfate, sulfite, thiosulfate, and sulfur serve as terminal electron acceptors and are reduced to sulfide. Fumarate, dimethyl sulfoxide (DMSO), and anthraquinone‐2,6‐disulfonate (AQDS) might be used as well. Desulfoviridin is present. In the absence of an external electron acceptor, growth may occur by fermentation of pyruvate (two species) and certain amino acids (one species). Mesophilic; the optimum temperature for growth is 24–37°C. Neutrophilic; the optimum growth pH is 6.5–7.2. Media containing a reductant but not NaCl are required for growth. Three members of the genus
Desulfovibrio
have been transferred to the new genus
Humidesulfovibrio
. Occur in anaerobic treatment plants, cryopegs within permafrost, and anoxic freshwater sediment.

DNA G + C content (mol%)
: 55.2–66.0 (LC, genome).

Type species
:
Humidesulfovibrio mexicanus
Waite et al. 2020
VP
(basonym:
Desulfovibrio mexicanus
Hernandez‐Eugenio et al. 2000, VL79).
Temperatibacter
Authors: Xu Xue‐Wei , Xu Lin , Whitman William B. 
Published: December 2020

Abstract

Tem.per.at.i.bac'ter. L. masc. adj.
temperatus
temperate, referring to the moderate growth temperature range of the type species; N.L. masc. n.
bacter
rod; N.L. masc. n.
Temperatibacter
the temperate rod.

Proteobacteria / Alphaproteobacteria / Kordiimonadales / Temperatibacteraceae / Temperatibacter

The genus
Temperatibacter
accommodates aerobic, mesophilic, alkali‐tolerant, moderately halophilic, and chemoheterotrophic bacteria. Cells are Gram‐stain‐negative, curved rods, and motile by polar flagellum. Ubiquinone‐10 is detected as the sole isoprenoid quinone. The predominant cellular fatty acids are branched‐chain fatty acids. The major polar lipids are phosphatidylethanolamine, phosphatidylglycerol, and one unidentified aminolipid. The member of this genus grows in medium supplemented with yeast extract and artificial or natural seawater. However, a wide range of substrates including glucose, citrate, and
dl
‐malate cannot be utilized as carbon, nitrogen, and energy sources. According to 16S rRNA gene sequence analysis, the genus belongs to the
Kordiimonadales
. DNA G + C content is 44.3 mol% (by LC). A known habitat is surface seawater.

DNA G + C content (mol%)
: 44.3 (LC).

Type species
:
Temperatibacter marinus
Teramoto and Nishijima 2014
VP
.