Discuss the Advantage and Disadvantage of Terrestrial Plant and Aquatic Plant

      The general characteristics of the plants in these bodies of water have strong and steady roots, or roots that are bendable, depending on how fast the current of the water is. These traits help the plants mainly so they do not get swept away. Plants that

Plants are found everywhere on earth, up high on the ridge and down low in caves and caverns. The types of plants that live in these places depends on many factors. These factors are separated into two different categories, the biotic factors and the abiotic factors. Some of the biotic factors include, predation, competition, and habitat destruction. Plants with limited competition and large amounts of resources will be in a higher abundance than plants with limited resources and higher competition rates will be confined to areas and either out competed or will be the dominant species. Certain plants adapt to these factors and thrive and others don’t do as well. Some of the abiotic factors include, sunlight, water, temperature, and wind. These

Plants that are adapted to drier climates are called xerophytes (an example if these types of plants are cactus). Some of these plants have adapted small, thick leaves with a reduced surface area. They may also have a thickened cuticle to protect themselves from the environment. The stomata may be sunken into pits. Some xerophytes shed their leaves during the driest seasons and others can store water such as cacti. CAM plants uptake CO2 at night and change it into crassulacean acid that can be broken down during the day for sugars. These plants can close their stomata during the day.

Biomes are appropriate conditions for organizing the natural world because the organisms that live in them common constellations of adaptations, particularly the climate of each of the areas and the characteristic vegetation types that develops in these divisions. It should be understood that the climate is perhaps the most important in determining classes of individuals who may live in an area and the ways they should be amended to live under different conditions of temperature and precipitation and seasonal distribution of these factors element. Every place on Earth has its own climate, influenced by both macroclimate regions as the particular microclimate. The soils are very important because they are essential to determine the types of plants that will grow into a bioclimatic zone in partical, in addition, also as substrates for animals serve. In turn, the soils are heavily influenced by regional climate, as well as the geology of the bedrock. At the same time we have to keep in mind the diversity of plants like the flora just like the diversity of the fauna as well as the adaptation of both.

Adaptations in terrestrial environments involve the structural and functional qualities of the organism, to achieve the adequate intake of oxygen and other essential substances for the animal to survive, the evolution of more complex anatomical structures were required. Gravity is stronger on land than water, which means terrestrial organisms have to be more structural than aquatic organisms. Also, the balance of gas exchange with water loss is a key feature to survive in land. For example plants, when doing photosynthesis require carbon dioxide and water to produce oxygen, at the end of this process a lot of water is lost and terrestrial plants have to compensate the water being lost and the water taken from soil. Furthermore, the dispersal of gametes by wind or other animals have helped plants reproduce in large amounts and create varieties of species of the same kind. Short-term weather patterns as well as long-term climate conditions based on precipitations, temperature, wind, humidity as well as other factors are survival obstacles that organisms in land have to adapt to live; endothermic organisms have to maintain a constant internal

Cavitation has a decreasing impact on plants’ ability to transport water from the soil to their leaves. The studies report that plants in chaparral vegetation are more susceptible to cavitation during the wet season. The studies also found that the location (for example, temperature, precipitation rates or distance to the coast) of chaparral have impacts on cavitation resistance. In addition, the studies hypothesize and found that plants in chaparral habitats with greater precipitation have the tendency to become less resistant to cavitation, especially in the beginning of summer. This paper is relevant to chaparral because it explores the relationship between cavitation in chaparral vegetation and its effects on the overall

evaporate back on land, making the plants living under water die from the lack of carbon dioxide

Plants rely on receiving their nutrients and water through soil. This is able to be done by a special kind of diffusion, called osmosis. Osmosis is when fluid passes through a semipermeable membrane to an either low or high concentration separating the two solutions. These high and low concentrations, will consists of having solute in each. Water will pass through the membrane, until each side is equal in concentrations. Although

Flow of water is very important within the ecosystem as it has an effect on other abiotic factors such as temperature which then has a knock on effect on where certain plant chose to live within the river or steam.

Plants are the back bone to earth; they are indispensable to being able to survive. They provide the earth with oxygen and absorb carbon dioxide. They are vital to human well-being as they provide the earth with nutrients, help with the water cycle and are essential for food supply. Plants provide all the energy for the ecosystem, as they can get energy directly from sunlight. They use a process called photosynthesis to use energy from the sun to grow and reproduce. (North western projects, Unknown) Plants also obtain nutrients from the soil in which they growth in. By using photosynthesis plants obtain most of their oxygen and carbon from the air and hydrogen is obtained from the water in the soil. (Victorian Agriculture, 2015). If salt water is absorbed in soil, it can stay in the soil for a long time. This can either be positive or negative depending of the amount of salt in the soil.

Observation: A higher density of plants were observed to grow near a source of water with the plant density decreasing as the distance to the water source increased.

Ecology has been the study of different interactions amongst organisms with the abiotic environment (Pimm and Smith, 2007), examining how ecosystems have thrived upon these relations. Ecosystems have depended on the continued availability of energy supplied ultimately by plants through the process of photosynthesis. Plants have lived in association with each other from having occupied the same niche in nature (Khan and Hussain, 1999). Numerous plants have

Have you ever wondered what would happen if plants grew in acidic water? What about bottled mineral water? Water with fertilizer? Well, now you can know! In my experiment, I will be testing which type of water will help the plant grow better. In this case, I will be using duckweed to test the water. Duckweed is a very small, green plant that floats on the water’s surface. My hypothesis is that the duckweed will grow best in fresh water because duckweed is usually found growing abundantly in freshwater ponds or lakes.

Water- Water is required in the photosynthetic reaction. When plants lack water, their stomata close to prevent further water loss. At the same time, closing the stomata cells doesn't allow CO2 to diffuse into the leaf. Water is also therefore, linked to the carbon dioxide factor.

The plants that grow in saline soils have diverse ionic compositions and a range in concentrations of dissolved salts (Volkmar et al., 1998). These concentrations fluctuate because of changes in water source, drainage, evapo-transpiration, and solute availability (Volkmar et al., 1998). Due to these varying conditions, plant growth depends on a supply of inorganic nutrients, and this level of nutrients varies in time and space (Maathius and Amtmann, 1999). Either extreme condition concerning nutrients results in deficiency or toxicity in plants, and this is demonstrated by salt tolerance (Maathius and Amtmann, 1999). These conditions vary according to the plant species and growth conditions. Little is known about the genetic basis for diversity of salt tolerance in plants, and this could be partly explained through the definitions given for salinity.