Showing items with similar title or keywords.

• Marked Neurospora crassa Strains for Competition Experiments and Bayesian Methods for Fitness Estimates 

  Kronholm, Ilkka; Ormsby, Tereza; McNaught, Kevin J.; Selker, Eric U.; Ketola, Tarmo (Genetics Society of America, 2020)

  The filamentous fungus Neurospora crassa, a model microbial eukaryote, has a life cycle with many features that make it suitable for studying experimental evolution. However, it has lacked a general tool for estimating ...

• Research data of an article: "Application of high resolution melting assay (HMR) to study temperature dependent infraspecific competition in an pathogenic bacterium." 

  Ashrafi, Roghaieh; Bruneaux, Matthieu; Sundberg, Lotta-Riina; Pulkkinen, Katja; Ketola, Tarmo (Scientific Reports, 2017)

  Studies on species’ responses to climate change have focused largely on the direct effect of abiotic factors and in particular temperature, neglecting the effects of biotic interactions in determining the outcome of climate ...

• Original data for article: Present environmental fluctuations drive species’ competitive success in experimental invasions 

  Räsänen, Emmi; Lindström, Leena; Ketola, Tarmo (University of Jyväskylä, Open Science Centre. jyx@jyu.fi, 2020)

  Climate change is presumed to increase both the number and frequency of fluctuations in environmental conditions. Fluctuations can affect the ecological and evolutionary processes that make species more successful competitors ...

• Epigenetic Control of Phenotypic Plasticity in the Filamentous Fungus Neurospora crassa 

  Kronholm, Ilkka; Johannesson, Hanna; Ketola, Tarmo (Genetics Society of America, 2016)

  Phenotypic plasticity is the ability of a genotype to produce different phenotypes under different environmental or developmental conditions. Phenotypic plasticity is a ubiquitous feature of living organisms, and is ...

• Quantitative genetics of temperature performance curves of Neurospora crassa 

  Moghadam, N.N.; Sidhu, K.; Summanen, P.A.M.; Ketola, T.; Kronholm, I. (Wiley, 2020)

  Earth's temperature is increasing due to anthropogenic CO2 emissions; and organisms need either to adapt to higher temperatures, migrate into colder areas, or face extinction. Temperature affects nearly all aspects of an ...