Microhabitat Variation

Temperature results for this observational study show that temperature mean and standard deviation values take leave as you go from one location to an otherwise. These results argon basically moved(p) by several factors. One factor for example is the meat of temperateness received by a particular field of study. Shaded locations, such as downstairs a holly tree and another tree near the shore consortium registered lower mean temperatures (20.55 C and 21.03 C respectively) compared to those areas that are more clear to direct sunniness such as the sunny patch of batch (31.60 C) and at the bleachers (28.52 C). exposure to direct sunlight obviously increases the temperature of a real area dapple the absence of it decreases the temperature.Also, the canopy of the trees hinders the sunlight to penetrate the area on a lower floor it thus, contributing to the lowering of the temperature of the said locations. The amount of sunlight that enters the worldly concern has great ef fect on air temperature. But as sunlight passes through the air, it does not heat it but rather, warms the air above the quiets (streams, ponds) and solids (soil) on the Earth. Usually, the warmest time of the day is the middle because it is when the sunlight is directly hitting these liquids and solids. Temperature is ordinarily low at midnight, decreasing in the early hours of the morning, and then change magnitude rapidly until just after midday. It then decreases during the night (http//www.niwascience.co.nz/edu/resources/climate/plots/).Also, it is warming during summer because there are more time for the Earths surface to heat up as compared during winter time. This event is in like manner observable inside a thermometer, an instrument used to measure temperature. The liquid inside this instrument expands and goes up when the air surrounding it is warm. During colder days on the other hand, the liquid contracts and goes down. On the other hand, the temperature values obse rved under a tree showed a larger standard deviation (32.74) as compared to other areas observed.This can be explained by the fact that trees have the power to reduce wind and air circulation especially in humid climates. pear-shaped trees with dense foliage can limit air circulation on acerbic days and increase the landscapes humidity by decreasing the amount of useable sunlight. The lower a trees branches are to the ground, the more it contributes to an airless space (httpwww.). Variations on the activities of the tree in order to reconcile to the existing sunlight amount caused the wide range of temperature values observed in this specific location.The scatterplot shows that the add up temperatures of the study locations and the issuing of animals observed on those locations have no square parityship with one another as proven by a high P value (0.135). Also, the two variables have a wan positive descent as shown by a positive R value (0.377). These observations mean tha t although the two variables have no significant relationship, it should remedy be noted that they have a positive and direct relationship, which means that as the average temperatures of the study locations increases, so does the number of animals observed on those locations and vice versa.The abovementioned observations can be explained by the fact that animals survival is greatly affected by any change in their surrounding milieus temperature. According to Liebigs Law of the Minimum, population growth will be limited by the required factor that is in shortest supply (http//www.utm.edu/departments/cens/ biological science/rirwin/441_442/441PhysEc.htm).The factor in shortest supply can be called as the narrowing factor which determines the abundance or lack of a certain number of animals and other beings and it can either be an abiotic of biotic factor. In this experiment, we regarded the temperature as the main abiotic factor under observation. Different animals have differen t perimeter levels for different factors affecting their survival.For temperature, eurythermals have wide range of tolerance for temperatures while stenothermal refers to those who have narrow tolerance for temperature. These mean that if a certain existence or group of organism cannot adapt to an environment with limiting factors that are necessary for their survival, or they cannot tolerate any drastic increase or decrease in temperature, they may be unable to reproduce or worse, die.Another explanation for this event is the ability of animal for thermoregulation. Thermoregulation is the ability of an organism to keep its body temperature within certain boundaries, even when temperature surrounding is truly different (http//en.wikipedia.org/wiki/Thermoregulation). It one process of homeostasis which is a vigorous condition of stableness between an animals internal and external environments.In relation to this, there are two conditions that can drop dead to an organism when it cannot square off its internal and external environments and maintain its commonplace temperature. One is hyperthermia, this can happen when an organisms body temperature significantly increases above normal. On the other hand, its opposite is known as hypothermia wherein the body temperature decreases below the normal level. When an organism suffers any of these two conditions, it can be very fatal.These concepts simply prove that the average temperatures of the study area and the number of animals found in each observed area have a direct relationship with one another. And these can happen either during the hot day or cold day but may have different manifestations depending on the kind of organism and how it adapts to the changes in its environment.Animals tend to prefer microclimates that show very little variation in temperature because it will be of great toll to them if they always have to regulate their body temperatures in order to adapt to their environment. And in vic e versa, it will be of great help to them if they do not need to do this anymore because they will save up their energy for other metabolic processes such as reproduction or food storage and consumption.SourcesLecture Physiological Ecology. Retrieved November 8, 2006, from http//www.utm.edu/departments/cens/biology/rirwin/441_442/441PhysEc.htmMackintoch, L. Answers to Questions. Retrieved November 8, 2006, from http//www.niwascience.co.nz/edu/resources/climate/plots/Streich A., Janssen D., Gaussoin R.,and Rodie S. (2003, July). Landscapes for Shade. Retrieved November 8, 2006Sunlights execution on Air Temperature. Retrieved November 8, 2006 from http//science.howstuffworks.com/question651.htmThermoregulation. Retrieved November 8, 2006 from http//en.wikipedia.org/wiki/Thermoregulation