Cladina stellaris

Ethnobotanical Studies

Studies

Net photosynthetic recovery in subarctic lichens with contrasting water relations.

Groulx M and Lechowicz MJ (1987).
Oecologia.
PubMed:
28312982

Carbon dioxide exchange in Cladina lichens from subarctic and temperate habitats.

Lechowicz MJ et al (1978).
Oecologia.
PubMed:
28309400

Microfungal variations relative to post-fire changes in soil environment.

Lucarotti CJ, Kelsey CT and Auclair AN (1978).
Oecologia.
PubMed:
28309280

Hydration state of the moss Hylocomium splendens and the lichen Cladina stellaris governs uptake and revolatilization of airborne α- and γ-hexachlorocyclohexane.

Kylin H and Bouwman H (2012).
Environ Sci Technol.
PubMed:
22992198

Caribou-induced changes in species dominance of lichen woodlands: an analysis ofplant remains.

Boudreau S and Payette S (2004).
Am J Bot.
PubMed:
21653398

Quantitative determination of secondary metabolites in Cladina stellaris and other lichens by micellar electrokinetic chromatography.

Falk A, Green TK and Barboza P (2008).
J Chromatogr A.
PubMed:
18207149

Differential responses of lichen symbionts to enhanced nitrogen and phosphorus availability: an experiment with Cladina stellaris.

Makkonen S, Hurri RS and Hyvärinen M (2007).
Ann Bot.
PubMed:
17452379

Age Dependence of Photosynthesis in the Caribou Lichen Cladina stellaris.

Lechowicz MJ et al (1983).
Plant Physiol.
PubMed:
16662925

Impact of fertilisation on phenol content and growth rate of Cladina stellaris: a test of the carbon-nutrient balance hypothesis.

Hyvärinen M, Walter B and Koopmann R (2003).
Oecologia.
PubMed:
12647157

Impact of wet deposited nickel on the cation content of a mat-forming lichen Cladina stellaris.

Hyvärinen M et al (2000).
Environ Exp Bot.
PubMed:
10725520

Differential responses of certain lichen species to sulfur-containing solutions under acidic conditions as expressed by the production of stress-ethylene.

Garty J, Kauppi M and Kauppi A (1995).
Environ Res.
PubMed:
8608772