Carex lasiocarpa 174 claims

Claim · model-written summary

Phenanthrene at 1 mg/L declined by over 89.30% in microcosms with Typha sp., Carex utriculata or C. lasiocarpa.

Taxon

Typha sp., Carex utriculata, or C. lasiocarpaCarex lasiocarpaCarex utriculataTypha sp.e1

Treatment

1 mg/L phenanthrenee1

Outcome

Phenanthrene declinede2

Value

over 89.30%e2

Setting

IISD Experimental Lakes Area, Canadae0

Verbatim

e0

“a freshwater microcosm experiment was conducted at the IISD Experimental Lakes Area, Canada”

e1

“Triplicate microcosms containing 3L of lake water were established with either Typha sp., Carex utriculata, or C. lasiocarpa and then treated with nominal concentration of 1 mg/L phenanthrene”

e2

“Phenanthrene declined by over 89.30% in all microcosms that received the compound, but the decline was more rapid in microcosms that included Typha sp. and C. lasiocarpa, than those with C. utriculate or no plants”

Claim · model-written summary

Phenanthrene decline was more rapid in microcosms with Typha sp. and C. lasiocarpa than with C. utriculata or no plants.

Taxon

Typha sp. and C. lasiocarpaCarex lasiocarpaTypha sp.e2

Treatment

included Typha sp. and C. lasiocarpae2

Outcome

declinee2

Direction

more rapide2

Comparator

C. utriculate or no plantse2

Verbatim

e2

“Phenanthrene declined by over 89.30% in all microcosms that received the compound, but the decline was more rapid in microcosms that included Typha sp. and C. lasiocarpa, than those with C. utriculate or no plants”

Claim · model-written summary

Phenanthrene decline in microcosms without plants may have resulted from biofilm stimulation.

Taxon

Typha sp., Carex utriculata, or C. lasiocarpaCarex lasiocarpaCarex utriculataTypha sp.e1

Outcome

Declining phenanthrene concentrationse3

Qualifier

biofilm stimulatione3

Verbatim

e1

“Triplicate microcosms containing 3L of lake water were established with either Typha sp., Carex utriculata, or C. lasiocarpa and then treated with nominal concentration of 1 mg/L phenanthrene”

e3

“Declining phenanthrene concentrations in microcosms without plants may have resulted from biofilm stimulation”

Claim · model-written summary

Specific conductivity and pH were influenced by plant type.

Taxon

Typha sp., Carex utriculata, or C. lasiocarpaCarex lasiocarpaCarex utriculataTypha sp.e1

Treatment

plant typee4

Outcome

Specific conductivity and pHe4

Not reportedDirection

Verbatim

e1

“Triplicate microcosms containing 3L of lake water were established with either Typha sp., Carex utriculata, or C. lasiocarpa and then treated with nominal concentration of 1 mg/L phenanthrene”

e4

“Specific conductivity and pH were influenced by plant type but not phenanthrene, while dissolved oxygen was influenced by both”

Claim · model-written summary

Phenanthrene did not influence specific conductivity or pH.

Taxon

Typha sp., Carex utriculata, or C. lasiocarpaCarex lasiocarpaCarex utriculataTypha sp.e1

Treatment

phenanthrenee4

Outcome

Specific conductivity and pHe4

Not reportedDirection

Verbatim

e1

“Triplicate microcosms containing 3L of lake water were established with either Typha sp., Carex utriculata, or C. lasiocarpa and then treated with nominal concentration of 1 mg/L phenanthrene”

e4

“Specific conductivity and pH were influenced by plant type but not phenanthrene, while dissolved oxygen was influenced by both”

Claim · model-written summary

Dissolved oxygen was influenced by plant type.

Taxon

Typha sp., Carex utriculata, or C. lasiocarpaCarex lasiocarpaCarex utriculataTypha sp.e1

Treatment

plant typee4

Outcome

dissolved oxygene4

Not reportedDirection

Verbatim

e1

“Triplicate microcosms containing 3L of lake water were established with either Typha sp., Carex utriculata, or C. lasiocarpa and then treated with nominal concentration of 1 mg/L phenanthrene”

e4

“Specific conductivity and pH were influenced by plant type but not phenanthrene, while dissolved oxygen was influenced by both”

Claim · model-written summary

Phenanthrene had no influence on plant growth rates or root biofilm bioactivity.

Taxon

Typha sp., Carex utriculata, or C. lasiocarpaCarex lasiocarpaCarex utriculataTypha sp.e1

Treatment

phenanthrenee5

Outcome

plant growth rates or root biofilm bioactivitye5

Direction

no influencee5

Verbatim

e1

“Triplicate microcosms containing 3L of lake water were established with either Typha sp., Carex utriculata, or C. lasiocarpa and then treated with nominal concentration of 1 mg/L phenanthrene”

e5

“There was no influence of phenanthrene on plant growth rates or root biofilm bioactivity, measured by adenosine triphosphate or oxygen consumption”

Claim · model-written summary

The association Hamatocauli vernicosae–Caricetum lasiocarpae dominated by Carex lasiocarpa is introduced as new.

Taxon

Carex lasiocarpaCarex lasiocarpae2

Outcome

introduced as new onese1

Verbatim

t0

“wooded rich fens and swamps”

e1

“one association (Hamatocauli vernicosae–Caricetum lasiocarpae) and 2 subassociations (Telypterido palustris–Betuletum pubescentis inops and Thelypteridetum palustris brachythecietosum mildeanae) are introduced as new ones”

e2

“Carex lasiocarpa — ass. Hamatocauli vernicosae–Caricetum lasiocarpae ass. Nov”

Claim · model-written summary

High Carex lasiocarpa abundance at ten years was associated with higher methane emissions than the reference ecosystem.

Taxon

Carex lasiocarpaCarex lasiocarpae0

Outcome

CH 4 emissionse0

Direction

highere0

Qualifier

10 years post-treatmente0

Comparator

reference ecosysteme0

Verbatim

e0

“high abundance of Carex lasiocarpa 10 years post-treatment led to higher CH 4 emissions than the reference ecosystem.”

Claim · model-written summary

Carex lasiocarpa was more widely distributed than previous publications indicated.

Taxon

Carex lasiocarpaCarex lasiocarpae0

Outcome

distributede0

Direction

more widelye0

Comparator

previous scientific publicationse0

Verbatim

e0

“the Slender Sedge (Carex lasiocarpa) is in fact more widely distributed than the previous scientific publications have shown.”