Question: Fuchsia and Tsuga are both types of what family of organisms?
Context: Tsuga ( , from Japanese: 栂 (ツガ ), the name of "Tsuga sieboldii)" is a genus of conifers in the pine family Pinaceae.  The common name hemlock is derived from a perceived similarity in the smell of its crushed foliage to that of the unrelated plant poison hemlock.  Unlike the latter, "Tsuga" species are not poisonous. Fuchsia magellanica, commonly known as the hummingbird fuchsia or hardy fuchsia, is a species of flowering plant in the family Evening Primrose family (family Onagraceae), native to the lower Southern Cone of southern South America. Cyanobionts are cyanobacteria that live in symbiosis with a wide range of organisms such as terrestrial or aquatic plants; as well as, algal and fungal species.  They can reside within extracellular or intracellular structures of the host.  In order for a cyanobacterium to successfully form a sybiotic relationship, it must be able to exchange signals with the host, overcome defense mounted by the host, be capable of hormogonia formation, chemotaxis, heterocyst formation, as well as possess adequate resilience to reside in host tissue which may present extreme conditions, such as low oxygen levels, and/or acidic mucilage.  The most well-known plant-associated cyanobionts belong to the "Nostoc" genus.  With the ability to differentiate into several cell types that have various functions, members of the genus "Nostoc" have the morphological plasticity, flexibility and adaptability to adjust to a wide range of environmental conditions, contributing to its high capacity to form symbiotic relationships with other organisms.  Several cyanobionts involved with fungi and marine organisms also belong to the genera "Richelia, Calothrix, Synechocystis, Aphanocapsa" and "Anabaena", as well as the species "Oscillatoria spongeliae".  Although there are many documented symbioses between cyanobacteria and marine organisms, little is known about the nature of many of these symbioses.  The possibility of discovering more novel symbiotic relationships is apparent from preliminary microscopic observations. Fuchsia ( ) is a genus of flowering plants that consists mostly of shrubs or small trees.  The first, "Fuchsia triphylla", was discovered on the Caribbean island of Hispaniola (Haiti and the Dominican Republic) about 1696–1697 by the French Minim monk and botanist, Charles Plumier, during his third expedition to the Greater Antilles.  He named the new genus after the renowned German botanist Leonhart Fuchs (1501–1566). Fuchsia excorticata, commonly known as tree fuchsia, New Zealand fuchsia and by its Māori name kōtukutuku, is a New Zealand native tree belonging to the family Onagraceae.  It is commonly found throughout New Zealand and as far south as the Auckland Islands.  It grows from sea level up to about 1000 m , particularly alongside creeks and rivers.  It is easily recognised in its native environment by the characteristic appearance of its bark, which peels spontaneously, hanging in red papery strips to show a pale bark underneath.  Its scientific name, "excorticata", reflects this distinctive property. Dosage Compensation is the process by which organisms equalize the expression of genes between members of different biological sexes.  Across species, different sexes are often characterized by different types and numbers of sex chromosomes.  In order to account for varying numbers of sex chromosomes, different organisms have acquired unique methods to equalize gene expression amongst the sexes.  Because sex chromosomes contain different numbers of genes, different species of organisms have developed different mechanisms to cope with this inequality.  Replicating the actual "gene" is impossible; thus organisms instead equalize the "expression" from each gene.  For example, in humans, females (XX) silence the transcription of one X chromosome of each pair, and transcribe all information from the other, expressed X chromosome.  Thus, human females have the same number of expressed X-linked genes as do human males (XY), both sexes having essentially one X chromosome per cell, from which to transcribe and express genes. Osmoconformers are marine organisms that maintain an internal environment that is osmotic to their external environment.  This means that the osmotic pressure, or osmolarity, of the organism’s cells is equal to the osmotic pressure of their surrounding environment.  By minimizing the osmotic gradient, this subsequently minimizes the net influx and efflux of water into and out of cells.  Even though osmoconformers have an internal environment that's isosmotic to their external environment the types of ions in the two environments differ greatly in order to allow critical biological functions to occur.  A benefit to osmoconformation is that organisms don’t need to expend as much energy as osmoregulators in order to regulate ion gradients.  However, to ensure the correct types of ions are in their desired location, a small amount of energy is expended on ion transport.  A disadvantage to osmoconformation is that organisms are subject to changes in the osmolarity of their environment. Eremophila decipiens, commonly known as slender fuchsia bush or narrow-leaved fuchsia bush (although it is not closely related to "Fuchsia") is a flowering plant in the figwort family, Scrophulariaceae and is endemic to an area extending from the south-west of Western Australia to southern parts of South Australia.  It is low, sprawling shrub with lance-shaped leaves and red, orange or yellow flowers on a long, S-shaped stalk. Eremophila latrobei, commonly known crimson turkey bush, native fuchsia, Latrobe's emu bush, grey fuchsia bush, warty fuchsia bush and Georgina poison bush is a flowering plant in the figwort family, Scrophulariaceae and is endemic to Australia.  It is an erect, highly branched shrub with usually linear leaves and red to purple-red flowers and which occurs in all mainland states, including the Northern Territory but excluding Victoria. Evolving digital ecological networks are webs of interacting, self-replicating, and evolving computer programs (i.e., digital organisms) that experience the same major ecological interactions as biological organisms (e.g., competition, predation, parasitism, and mutualism).  Despite being computational, these programs evolve quickly in an open-ended way, and starting from only one or two ancestral organisms, the formation of ecological networks can be observed in real-time by tracking interactions between the constantly evolving organism phenotypes.  These phenotypes may be defined by combinations of logical computations (hereafter tasks) that digital organisms perform and by expressed behaviors that have evolved.  The types and outcomes of interactions between phenotypes are determined by task overlap for logic-defined phenotypes and by responses to encounters in the case of behavioral phenotypes.  Biologists use these evolving networks to study active and fundamental topics within evolutionary ecology (e.g., the extent to which the architecture of multispecies networks shape coevolutionary outcomes, and the processes involved).
Answer: plants