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. 2013 Oct 14;7(1):123–139. doi: 10.1111/eva.12112

Table 1.

Summary of studies of terrestrial plants designed to examine plastic and/or genetic responses of traits driven by climate change

Family Species Trait type Genetic Plastic Adapt Cause Time References
A. Studies showing direct evidence for genetic and/or plastic changes due to climate change
Brassicaceae Brassica rapa PH, PY Y(2,3) Y(4)/N(2,3) Y(1,2) Y(2,3) RS Franks et al. (2007), Franks and Weis (2008), Franks (2011)
Lamiaceae Thymus vulgaris PF Y(6) . Y(2) Y(1) FD Thompson et al. (2007, 2013)
Poaceae Andropogon gerardii PY, GR Y(2,3,6) Y(2,3,4) Y(3)* Y(3) EX Avolio et al. (2013), Avolio and Smith (2013)
Poaceae Triticum dicoccoides and Hordeum spontaneum PH, AF Y(2,6) . . Y(2) RS Nevo et al. (2012)
Polygonaceae Polygonum cespitosum PY, GR Y(2,3) Y(2,3) Y(1,2)* Y(2,3) RS Sultan et al. (2013)
B. Studies showing strongly suggestive evidence for genetic and/or plastic changes due to climate change
Betulaceae Betula pubescens and Betula pendula PH Y(2,3) Y(2) Y(2) Y(1) EX Billington and Pelham (1991)
Brassicaceae Arabidopsis thaliana PH Y(2,4) Y(2,3) N(2) Y(2,3) EX Springate et al. (2011)
Brassicaceae Boechera stricta PH Y(2,3) Y(2,4) Y(1,2) Y(2) EX, FD Anderson et al. (2012a)
Brassicaceae Brassica juncea PH, GR Y(2,3,4) Y(2,3) N(1,2) Y(3) EX Potvin and Tousignant (1996)
Brassicaceae Erysimum capitatum GR Y(2,5) Y(2,4) Y(1) Y(1) EX Kim and Donohue (2011)
Caryophyllaceae Colobanthus quitensis PY, GR Y(2,4) Y(2,3) Y(1)* . EX Molina Montenegro et al. (2012)
Fagaceae Fagus sylvatica and Quercus petraea PH Y/N(2,5) Y(2,5) . Y(1) EX Vitasse et al. (2010)
Fagaceae Quercus suber PY, GR Y(2,5) Y(2,4) Y(1) Y(2) EX Ramírez-Valiente et al. (2010)
Myrtaceae Eucalyptus globulus PY Y(2,3,5) . Y(4) Y(2) EX Dutkowski and Potts (2012)
Poaceae Festuca lenensis GR Y(2,5) Y(2,3,4) Y(1) Y(2) EX Liancourt et al. (2012)
Rhizophoraceae Rhizophora mangle L. PY, GR . Y(3,5) . Y(3) EX Ellison and Farnsworth (1997)
Betulaceae Betula pendula AF Y(6) . . Y(2) DO Kelly et al. (2003)
Fagaceae Fagus sylvatica AF Y(5,6) . . Y(2) DO Jump et al. (2006)
Pinaceae Pinus banksiana GR Y(2) Y(2,4) . Y(2) DO Savva et al. (2008)
Pinaceae Pinus contorta GR Y(2,5) Y(2,5) . Y(2) DO, FD McLane et al. (2011)
Pinaceae Pseudotsuga menziesii GR Y(2,3) Y(2,4,5) Y(2) Y(2) DO, MD Martinez-Meier et al. (2009)
Mutiple 27 different sp. AF Y(5,6) . . Y(1) MD Alsos et al. (2012)
Pinaceae Abies sachalinensis GR Y(2,5) Y(2,5) Y(1) Y(1) MD Ishizuka and Goto (2012)
Pinaceae Pinus contorta GR Y(2,3) Y(2,5)* . Y(1) MD Wang et al. (2010)
Pinaceae Pinus sylvestris PH Y(2,3,5) Y(2)* Y(2) Y(2) MD Savolainen et al. (2004)
Pinaceae Pinus sylvestris PH, AF Y(2,5,6) Y(2,4) Y(1,2) Y(1) MD Savolainen et al. (2007, 2011)
Asteraceae Artemisia californica PH, PY, GR Y(2,3,5) Y(2,3,4) Y(1,2) Y(2,3) . Pratt and Mooney (2013)
Brassicaceae Brassica rapa PH, GR Y(2) Y(2) Y(1) Y(3) . Lau and Lennon (2012)
Fabaceae Chamaecrista fasciculata PH, GR Y(2,3,5) Y(2,4) Y(1,2) Y(1) . Etterson and Shaw (2001), Etterson (2004)
Phrymaceae Mimulus laciniatus GR Y(2,5) . Y/N(2) Y(1) . Sexton et al. (2009)
Pinaceae Picea sitchensis PH, GR Y(2,4,5) Y(2,3,4) Y(1) Y(2) . Mimura and Aitken (2010)
Pinaceae Picea sitchensis × P. glauca AF Y(3,5,6) . . . . Hamilton et al. (2013)
Pinaceae Pinus pinaster PY Y(2,5) Y(2,4,5) . Y(2) . Corcuera et al. (2011)
Pinaceae Pinus sylvestris GR Y(2,3) Y(2,3) . Y(1) . Richter et al. (2012)
Poaceae Festuca eskia GR, AF Y(2,5,6) Y(2,4) Y(1)* Y(2) . Gonzalo-Turpin and Hazard (2009)
Salicaceae Populus balsamifera L. PH, PY Y(3,5) . Y(4) Y(2) . Keller et al. (2011)
Multiple 4 different sp. PY, GR . Y(3) . . . He et al. (2007)
Mutiple 57 different sp. PH . Y(3) . Y(1) . Cleland et al. (2012)

The 38 studies include five providing strong evidence (A) and 33 providing strongly suggestive evidence (B), based on the criteria of Merilä and Hendry (2014). Shown are Family and Species (genus and species) of the focal plant, and Trait type (type of trait that showed a response to climate change): PH – phenology, PY – physiology, PF – frequency of genetically controlled phenotype, GR – observed responses in some measure of growth (e.g., biomass, stem count, leaf width, reproductive output), AF – allele frequencies or genetic markers. Also given are information on Genetic (evolutionary) and Plastic responses, and whether these responses are Adaptive and Caused by climate change. For genetic and plastic responses, ‘Y’ indicates that evidence was found; ‘N’ indicates that evidence was not found; ‘.’ indicates that it was not investigated. For Adaptive, ‘Y’ indicates that responses increased fitness or were predicted to increase fitness in new climatic conditions; ‘N’ indicates maladaptive responses; ‘.’ indicates that adaptation was not investigates; ‘’ notes that adaptation was found but was not predicted to be sufficient to keep up with climate change; * notes that adaptation was predicted to be sufficient to keep up with climate change. For Cause, ‘Y’ indicates that the response was directly caused by climate change; ‘.’ indicates that causality was not investigated. Numbers denote the method of investigation invoked. Genetic categories: 2 – Common garden studies, 3 – Comparison to model predictions, 4 – Experimental evolution, 5 – Space for time substitution, 6 – Molecular genetic approaches; Plastic categories: 2 – Common garden studies, 3 – Experimental studies, 4 – Fine-grained population responses, 5 – Individual plasticity in nature; Adapt categories: 1 – Reciprocal transplants, 2 – Phenotypic selection estimates, 3 – Genotypic selection estimates, 4 – Qst-Fst comparison; Cause categories: 1 – Common sense, 2 – Phenotype by environment interactions, 3 – Experimental selection/evolution. For full descriptions of all categories see Merilä and Hendry (2014). Time (type of approach using a time component in data collection): RS – resurrection study, EX – field or greenhouse experiment through time, FD – field observations through time, MD – modeled through time, DO – dendrochronology (tree ring data over time), ‘.’ indicates no temporal component.

*

Adaptation predicted to be sufficient to keep up with climate change.

Adaptation not predicted to be sufficient to keep up with climate change.

Used a modeling approach to test for plasticity.