Sunday, October 6, 2019

CERVICAL CANCER IN VIETNAMESE WOMAN Thesis Example | Topics and Well Written Essays - 2500 words

CERVICAL CANCER IN VIETNAMESE WOMAN - Thesis Example A secondary analysis of the study is conducted to find out the cervical cancer differences. The questionnaire is prepared to analyze the data regarding cervical cancer. The theoretical framework is the main part of this study; this part presents an analysis of the cervical cancer in Vietnamese women. The result of the study indicates that cervical cancer is due to low Pap testing rates rather than difference in human papillomavirus infection rates. The effects of barriers of prevention are assessed. The result finds that most of the women are not having Pap screening. The results of the study will help in implementation of interventions. The study concludes with analyzing the prevention methods and awareness of cervical cancer control programs for Vietnamese women and recommending significance of Pap testing. 1. Select the Problem:    The problem selected for the study is the spreading of the cervical cancer among Vietnamese women. According to the study conducted by QIAGEN Group ( QIAGEN is the leading global contributor of sample and assay tools. Sample tools are used to separate and process RNA, DNA and proteins from biological models for example tissue or blood. Assay tools are used to create such separated bimolecular, for instance the DNA of a particular virus, noticeable for ensuing analysis.) (2010, p.2), it is mentioned that globally; cervical cancer is the second-most-common cancer among women. It is the leading cause of female cancer deaths in developing countries, where 80% of cervical cancer cases and deaths occur (â€Å"Creating a World Free From Cervical Cancer†, 2010, p.2). The study of cervical cancer is important, as it is the foremost cause of cancer deaths globally, particularly in the developing countries. Finding out its causes and awareness about prevention to Vietnamese women is really important. Cervical cancer persists to impact the quality of life of women and their families. â€Å"Shock, fear, self-blame, powerlessness, and anger are the most common emotions experienced by women who receive abnormal Pap test results† (â€Å"Social Impact of Cancer†, n.d., para. 12). Always, women misjudge their possibility in emerging cancer, as they may not fully understand human papillomaviruses and their symptoms, which may result to amplified anxiety regarding the future. So this may affect the development of the country and gain a lot of importance to study regarding the spreading of cervical cancer among Vietnamese women. â€Å"Cervical cancer among Vietnamese American women has been identified as an important health disparity† (Taylor et al., 2008, para.2). Years ago, this type of cancer was the foremost form of cancer amongst women in both North and South Vietnam. Presently, cervical cancer rates are significantly lesser in northern parts of the country. (â€Å"Association between War and Cervical Cancer among Vietnamese Women†, 2004, Para.1). â€Å"Many women, however, are not adequ ately informed about cervical cancer and are unable to navigate the healthcare system† (Schleicher, 2007, pg.2). According to Garner, the main factors of HPV infection include early sexual relationship, different sexual partners, difficulty in using methods of prevention, and other sexually transmitted diseases, such as HIV. (Garner, 2012, para.4). The

Saturday, October 5, 2019

Book Analysis of Ideas and Weapons by Irving Brington Holley Essay

Book Analysis of Ideas and Weapons by Irving Brington Holley - Essay Example This paper extensively examines the perspectives of war according to different scholars and the development of weapons. It also deals with the development of warfare from ancient societies up to the current, sophisticated forms of attacks. Ideas and Concepts There are several ideas and questions according to Keegan warfare. He strongly believes that war has a historical factor. For instance, he is a proponent of Clausewitzian framework, which he describes as being great in providing the foundation of examining warfare but fails to answer some pertinent questions. He tries to answer the question, what is war? In addition, how did war start? Specifically he notes that war has a cultural phenomenon (Keegan 56). War culturally came from militaristic way of life in Europe as compared to other historians who define it as the political struggle. Keegan proves extensively that culture is the focal point to describe warfare. Irving Brington Holley, on the other hand, brings the idea that deve lopment of weapons happened in steps (Holley 34). It is from his fact that those who used the modern weapons had victorious win over their rivals. The allies to the modern US with modern weapons could access the tools and protect themselves better. He provides a well thought idea that the need to get better protection of the US created the need to develop new and advance models of weapons to use in the war. The weapons made in this case were to be used by the American Air force. Themes and Propositions According to Keegan, many people lived unpretentious and pastoralist lifestyles until their cultural attitudes changed towards violence. He proves this by examining four groups of people who lived pastoralist lifestyle (Keegan 66). First, the Zulu originally from Sothern part of Africa lived a gentle life. The Shaka invaded and interrupted Zulu’s lifestyle through attacks, which sparked a war between the two communities. He categorically states that the war intended to protect the cultural systems that existed (Holley 56). More so, through Samurai of Japan, Keegan identifies war as culture protection being one of the aspects that cause it. Irving in his views divided his thoughts about ideas and weapons in three classes. Mainly the three classes are involved with supporting aerial weapons development that could be utilized in the world wars. First and far most, he identifies pursuit as a technique to hunt for the enemy. The US tacked down the skies of Europe to get areas of interest to attack (Holley 67). The second-class was the observation of key areas from the sky to be sure of attacking the correct areas. The last class included final stage, which was to bomb the targeted areas in Europe. He further notes that the minds of those who were responsible for innovating field operational aircrafts were to protect the US interests. The field aircrafts helped US to strike directly at the European ground forces and get away without any injuries. The Europeans were greatly defeated because of lack of sophisticated weapons against their opponent. It made all the US allies admire the innovation that was in place both in the First World War and the Second World War. Similarities and Differences Keegan divides warfare history in four main eras. They include iron, flesh, fire and stone. Each era marks a transition in the innovation of warfare right away from the strengthening and gradual development of the armies. Keegan creatively brings out different kinds of warfare in

Thursday, October 3, 2019

Techniques For Airflow Rate Measurements

Techniques For Airflow Rate Measurements My company is setting up an experiment to measure the airflow rate in a duct. Airflow measurement techniques are necessary especially in many industries. Some of the common airflow measuring applications include ventilation testing, air balancing, ductwork, air planes and so on. Many research and studies have been put into improving and inventing new equipments to measure air flow. This is so to enable user to get the most accurate result and at the same time using the least cost. This report outlines the different airflow measurement techniques and devices that are available today. There are many different types and ways to measure air flow but I will concentrate on those that are more popular and commonly used. They are the Pitot-tube, Orifice plate, Venturi meter, Cup anemometer, Sphere anemometer and Hot-Wire anemometer. Techniques and devices for airflow rate measurements 2.1 Pitot tube A pitot-static tube is used in wind tunnel experiments and on airplanes to measure the air flow rate. It is also used in many industrial applications. It was invented by the French engineer Henri Pitot in the early 1700s and was later modified to its modern form in the mid 1800s by French scientist Henry Darcy. It is a slender tube that has two holes on it (Figure 1). The front hole is placed in the airstream to measure whats called the stagnation pressure. The side hole measures the static pressure. By measuring the difference between these pressures, we are able to get the dynamic pressure that can be used to calculate the air velocity. By Bernoullis principle, Stagnation pressure = static pressure + dynamic pressure Solving that for velocity we get: Where V: fluid velocity; pt: stagnation or total pressure; ps: static pressure; à Ã‚ : fluid density Figure 1: Pitot-Static Tube The incorporation of sensors to measure the air temperature, barometric pressure, and relative humidity can further increase the accuracy of the velocity and flow measurements. The Pitot tube can also measure the velocity with the use of a pressure transducer that generates an electrical signal which is proportional to the difference between the pressures generated by the total pressure and the static pressure. The volumetric flow is then calculated by measuring the average velocity of an air stream passing through a passage of a known diameter. When measuring volumetric flow, the passage of a known diameter must be designed to reduce air turbulence as the air mass flows over the Pitot tube. To obtain an estimate of the volumetric flow in the duct from a series of pitot-static tube velocity measurements, one must integrate the velocity over the duct area. There are many of different methods for approximating the above integral. One of the methods is to divide the duct cross-section into a number of equal area sectors, and then measure the average velocity at the center of each sectors. For example, we can divide the cross-section of the duct in the figure below: The velocity will be by calculating the sum: 2.1.1 Advantages and Disadvantages The advantages of using pitot-static tube is that it can be inserted in small airstream and it presents little resistance to flow. It is simple, inexpensive and suited for a variety of environmental conditions including extremely high temperatures and a wide range of pressures. The disadvantages would be that if the flow rate is low, the difference in pressures will be too small to accurately measure with the transducer. If the air flow is high (supersonic), assumptions of Bernoullis equation will be violated and thus leading us to wrong measurement. Furthermore, if the tubes are clogged, the reading by the transducer will be inaccurate resulting in dire consequence in the context on airplane. Icing of the pitot tube had caused plane to crash. 2.2 Orifice Plate Orifice plate is used for flow rate measuring in pipe systems. An orifice plate is placed in a pipe containing a fluid flow, which constricts the smooth flow of the fluid inside the pipe. By restricting the flow, the orifice meter causes a pressure drop across the plate. By measuring the difference between the two pressures across the plate, the orifice meter determines the flow rate through the pipe. Figure 2: Orifice Plate in a duct Applying Bernoullis equation to a streamline flowing down the axis of the tube gives, Where, P: pressure à Ã‚ : density of the fluid V: Velocity of the fluid As shown in the above diagram(Figure 2), point 1 is upstream of the orifice, and point 2 is behind the orifice. It is recommended that point 1 be positioned one pipe diameter upstream of the orifice, and point 2 be positioned one-half pipe diameter downstream of the orifice. Since the pressure at 1 will be higher than the pressure at point 2, the pressure difference will be a positive quantity. From continuity equation, the velocities can be replaced by cross-sectional areas of the flow and the volumetric flow rate Q, Where, A: cross sectional area Solving for the volumetric flow rate Q gives, The above equation remains true with perfectly laminar, inviscid flows. As for real flows like water or air, we have to take into account of the viscosity and turbulence that are present .To account for this effect, a discharge coefficient Cd is introduced into the above equation to marginally reduce the flow rate Q, Since the actual flow profile at point 2 downstream of the orifice is quite complicated, the following substitution introducing a flow coefficient Cf is made, Where, Ao: area of the orifice As a result, the volumetric flow rate Q for real flows is given by the equation, The flow coefficient Cf is found from experiments and is tabulated in reference books. It ranges from 0.6 to 0.9 for most orifices. Since it depends on the orifice and pipe diameters (as well as the Reynolds Number), one will often find Cf tabulated versus the ratio of orifice diameter to inlet diameter, sometimes defined as b, The mass flow rate can be found by multiplying Q with the fluid density, There are mainly 3 different types of orifice plates. They are Concentric, Segmental and Eccentric. This is to accommodate for different applications so that the meter has the optimum structure. The density and viscosity of the fluid, and the shape and width of the pipe do influence the choice of plate shape to be used. The concentric orifice is the most common of the 3 types. In this design, the orifice is equidistant. It is generally used for clean liquid and gas flow in pipes under six inches, where Reynolds numbers range from 20, 000 to 107. We will therefore use concentric orifice for our experiment purposes. ( which deals with air). Segmental orifice is similar to concentric orifice with regard to its functioning. The circular section is concentric with the pipe while the segmental part is mounted in a horizontal pipe. This installation helps to eliminate of foreign materials on the upstream side of the orifice. Eccentric orifice plates are designed in such a way that the edge of the orifice is reallocated towards the interior of the pipe wall. It is used in similar manner as the segmental orifice plate. Figure 3 below shows the different types of orifice plates: 2.2.1 Advantages and Disadvantages With no moving parts and a simple design, the orifice is easily machined. It is low lost and can be easily inserted into a duct or an existing pipeline with a minimum alteration to the layout. Therefore orifice plate has been a popular device for flow measurement. The disadvantage is that it creates a rather large non-recoverable pressure due to the turbulence around the plate, leading to high energy consumption (Foust, 1981). 2.3 Venturi meter Most of the unrecoverable loss of pressure with an orifice is due to the sudden change in the cross sectional area. The sudden increase of area after the air passes the section of minimum area: the rapid convergence of the stream on the upstream side contributes considerably to the total loss. We are able to recover most of the pressure by leading the stream with the use of a conical length of pipe, with its smaller end of the same cross section as the jet, and gradually expanding in size along the direction of flow until the full pipe diameter is reached. An arrangement of this kind, with a conical entry is known as a venturi tube. The Venturi effect is named after Giovanni Battista Venturi (1746-1822), an Italian physicist. A venturi meter consists of a cylindrical length, a converging length with an included angle of 20o or more, and short parallel throat, and a diverging section with an included angle of about 6o. The internal finishes and proportions are designed in such a way to enable us to achieve the most accurate readings while ensuring minimum head losses. Assuming that the fluid is inviscid with no losses due to viscosity, the velocity at section 1 and 2 are V 1 and V 2 respectively. The velocities are steady and uniform over areas A 1 and A 2 Applying Bernoullis equation to a streamline passing along the axis between the two sections ( 1 2 ). Where, V:Velocity of the fluid P: Pressure à Ã‚ : density of the fluid Z: Height Using continuity equation, Q = A1 V 1 = A 2 V 2 When real world effects such as fluid friction and turbulence are included a correction factor, called the coefficient of discharge, Cd is introduced into the venturi equation giving For low viscosity fluids C d = 0,98. 2.3.1 Advantages and Disadvantages The venturi tube introduces substantially lower non-recoverable pressure drops (Foust, 1981). Therefore venture tube can be used on more viscous fluid. However it has limited range ability. It must be used only on installations where the flow rate is well known and varies less than 3 to 1. It is rather expensive and should be flow calibrated to provide accuracy into the range of +/- 1.00%, Units are big and weigh more than comparable head devices and thus making it difficult to install and inspect. 2.4 Anemometer An anemometer, also known as wind vane is a device for measuring the air flow rate in a contained flow such as duct or unconfined flow. The term is derived from the Greek word anemos, meaning wind. In around 1450, the Italian art architect Leon Battista Alberti invented the first mechanical anemometer which consisted of a disk placed perpendicular to the wind. To determine the velocity, an anemometer detects change in some physical property of the fluid or the effect of the fluid on a mechanical device inserted into the flow. They are probably best used mounted on light, preferably streamlined, supports and inserted into the airstream from one side. 2.4.1 Cup anemometer This device consists of three or four hemispherical cups mounted at the ends of horizontal spokes which rotates about a low-friction vertical shaft. An electrical device is used to record the revolutions of the cups and measures the air flow rate. (Figure below) As the anemometer is placed inside the flow stream, the concave surfaces of the cups have higher wind resistance than their convex counterparts and thus producing an unbalanced moment with respect to the center axis. This forces the cups to rotate (see schematic). Under steady flow condition, the rotational speed of the anemometer is directly related to the wind speed, that is: V=rw. There are number of fundamental physical parameters and characteristics of an anemometer that affects the cup anemometer performance. They are: rotor arm length cup area rotor inertia drag coefficient on convex face of cup drag coefficient on concave face of cup static, dynamic and parabolic mechanical friction coefficients for temperature range sensitivity characteristic to out-of-plane attack linearised calibration curve. A well designed cup anemometer should have the following characteristics as shown in the Figure 4 below: Let us examine a cup anemometer rotating at speed w in a free wind speed U: The instantaneous aerodynamic torque on the rotor, MA, is given by: where A: frontal area of the anemometer r: the air density Cdv : drag coefficients for the concave faces of cup Cdx drag coefficients for the convex faces of cup In the steady state, there is perfect torque balance (MA=0), and the equation reduces to: defining l and  µ as the speed and drag ratios respectively: allows further re-expression in a quadratic form: Typical values of Cdv and Cdx are 1.4 and 0.4 respectively, giving a value of  µ of 3.5. The above equation predicts that the consequential speed ratio l will be 0.303, meaning the rotor will rotate at about one third of the wind speed. Note that this solution also proves the theoretically linear sensitivity of the cup anemometer to wind speed. It also shows that the speed ratio is dependent on the drag characteristics of the cup and not the size. Furthermore, the rotational speed is inversely proportional to rotor radius. 2.4.2 Advantages and disadvantages The advantages of the cups are their reliability and ruggedness. The disadvantages are the relatively high threshold velocity (the minimum wind velocity needed to start the cups to turn). It is mainly used to only measure the horizontal component of the wind. Another problem with cup anemometry is the different response time for increasing and decreasing wind velocities due to its moment of inertia. This results in an overestimation of wind speed under turbulent wind conditions as present in nature, the so-called over-speeding. Additionally, the rotation of the anemometer causes a wear of bearing and leads to a recalibrations with time. 2.5 Sphere anemometer Many research and studies have gone into the improving of such a device (Cup anemometer). For example, the sphere anemometer. It was developed at the University of Oldenburg. This sphere anemometer, as shown in figure 4 below, is able to measure the air flow rate as well as simultaneous detection of the air flow direction. It eliminates the problem of wear of bearing as encountered in cup anemometer. Figure 5: The sphere anemometer uses the relationship between the point force F acting on the tip of a rod and its resulting deflection s. (1) Where l: the length of the rod E: the elasticity modulus Ja: the second moment of area. In case of the sphere anemometer, with a sphere radius r much bigger than the radius of the rod rR, the force can be assumed to act only on the tip. The second moment of area is then given by (2) Together with the force acting on the sphere (3) where cd: the drag coefficient of the sphere A: the cross section of the sphere ÃŽÂ ¡: the density of air V: the wind velocity Equation 1 becomes (4) Therefore the deflection of the rod is proportional to the drag coefficient cd and the wind velocity squared. For a calibration it is necessary to know how the drag coefficient cd changes with wind velocities. Table 1 below shows the drag coefficient of a sphere plotted against the Reynolds number (Re) (cf [1]). It can be seen that for Reynolds numbers in the range from about 800 to 200000 the change in drag coefficient cd is negligible. For a sphere with a radius r = 40mm this range in Re corresponds to a range in wind velocities from 0.17m/s to 38m/s using where v = 1.51 x 10-5 m2/s is the kinematic viscosity of air. Within this velocity range the deflection s of the rod is directly proportional to the wind velocity squared. With this direct relation it is easy to calibrate the sphere anemometer over a wide range of wind velocities. Table 1: 2.6 Hot wire anemometer Thermal anemometry is the most common method used to measure instantaneous fluid velocity. The technique depends on the convective heat loss to the surrounding fluid from an electrically heated sensing element or probe. If only the fluid velocity varies, then the heat loss can be interpreted as a measure of that variable. Working Principle Its principle application is the measurement of rapid fluctuations, particularly the study of turbulent flow; in this field it is the only instrument with sufficiently rapid response, and the associated electronic equipment lends itself readily to signal processing needed to record directly such properties of a turbulence as r.m.s values, correlation functions, and spectral distributions. Governing equation Consider a thin heated wire mounted to supports and exposed to a velocity U Where, W: power generated by Joule heating (W=I2Rw) Q: heat transferred to surrounding Qi: CwTw=thermal energy stored in wire Cw: heat capacity of wire Tw: wire temperature The wire is heated electrically and placed in the flow stream. The energy balance of the heated wire at equilibrium is (equation 1): Where, I: an electric current Rw: the wire resistance h: the heat transfer coefficient A: the heat transfer area Tw: the wire temperature Tf: the fluid temperature D: wire diameter Kf: heat conductivity of fluid Nu: dimensionless heat transfer In the forced convection regime (0.02 Reynolds number: Re= (where r is the air density and U is the velocity and  µ is the air dynamic viscosity).(equation 2) Where Substituted Eq(2) into Eq(1), There are two types of hot-wire anemometer used in practice but I will touch on Constant Temperature Anemometer which is more commonly used. For a case of Constant Temperature Anemometer Where And The voltage is a measured of velocity U. 2.6.1 Advantages and disadvantages It has good frequency response as it can measure up to several hundred kHz possible. It is able to measure a wide range of velocity. It is small in size and has rapid response.- Thermal anemometry enjoys its popularity because the technique involves the use of very small probes that offer very high spatial resolution. The basic principles of the technique are relatively straightforward and the probes are difficult to damage if reasonable care is taken. However, deposition of impurities in flow on sensor can alter the calibration characteristics and reduce frequency response. Probe may or burnt out easily if not carefully taken care of. It is unable to fully map velocity fields that depend on space coordinates and simultaneously on time. Furthermore, it cannot work well in hostile environment like combustion. The wire diameter needs to be very small of the order of 0.02mm or less. Conclusion In this report, I have touched on the different techniques and different devices for the measurement of airflow. There are many different devices in the market but many use similar techniques with abit of new inventions or add ons here and there. Different airflow measuring devices utilize different technologies and thus, one needs to fully understand the characteristics, techniques and its pros and cons before selecting the optimal one for use. In summary, an ideal device to measure air flow rate should have the following characteristics good signal sensitivity. It should be able to detect output for small changes in velocity. High Frequency Response: to accurately follow transients without any time lag Wide velocity range Create minimal flow disturbance Good Spatial Resolution Inexpensive High Accuracy User friendly

Wednesday, October 2, 2019

Faust as a Tragic Hero Essay -- Johann Wolfgang von Goethe essays pape

Faust as a Tragic Hero   Ã‚  Ã‚  Ã‚  Ã‚  In the story of Faust, written by Johann Wolfgang von Goethe, Faust is whirled into an adventure of sin and deceit. The further Faust follows the devil the closer he comes to his own demise, taking down with him the innocent Gretchen. As Faust goes on he embodies the characteristics of a tragic hero in a sense that he is borderline good and evil, constantly battling his conscience. The one major flaw that initiates his self-destruction is the fact that he feels he is extremely intelligent and can not be out witted.   Ã‚  Ã‚  Ã‚  Ã‚     Ã‚  Ã‚  Ã‚  Ã‚  Faust is a man of privilege, his father having been a doctor and himself a respected scholar; but he is essentially a desperate character, continuously yearning for more than this world has to offer. He is an extremely well educated man as well as wise in the ways of the world. As a result of his exceeding knowledge he becomes grossly cynical in his old age. His quest for greater knowledge and power leads him into the realm of sorcery and witch craft.   Ã‚  Ã‚  Ã‚  Ã‚  Faust’s dealings with darkness eventually lead him to deal with the ruler of all that is wicked and deceitful, the devil himself. Naturally Faust, longing for more than earthly pleasures, is compelled to accept Mephistopheles’ promises of complete contentment and satisfaction. Faust’s ego is such that he feels he can not be out witted even by the most skillful and cunning deceiver to ever walk the face of the earth. Soon Faust is on a journey leading to more misery and t...

Comparing The Perfect Family, The Sanctuary of School, Dog Lab, and Education :: Comparison Compare Contrast Essays

Comparing The Perfect Family, by Alice Hoffman, The Sanctuary of School, by Lynda Barry, Dog Lab, by Claire McCarthy, and Education by Jake Werner What we learn at home, at school, from our peers, and from entertainment can have great effects throughout our whole entire lives. There is no such thing as a perfect family, human being, or society, yet we are able to live our lives with the enjoyment of peace and harmony. What we see on television may simulate a perfect family, but, of course, not everything we wish to see is true. Not everyone can have the lives that everyone wants. In reading the essays "The Perfect Family" by Alice Hoffman, "The Sanctuary of School" by Lynda Barry, "Dog Lab" by Claire McCarthy, and "Education" by Jake Werner a realization occurred. These authors came down with comparable results. Two authors have similar styles of writing while the others had a contrasting style.   Ã‚  Ã‚  Ã‚  Ã‚  Ã‚  Ã‚  Ã‚  Ã‚  Ã‚  Ã‚  Ã‚  Ã‚  Ã‚  Ã‚   "The Perfect Family" by Alice Hoffman was about how she was faced with the adversity of being raised in a single parent family. She never gave up on believing her mom and herself, which is the reason who she is today. Alice Hoffman had a straight-forward strategy in writing her essay. In her style of writing, she included many details in describing her childhood history. It was from the introductory paragraph where I figured that this story was going to be descriptive in the sense of trying to constrain us by sympathizing with her and other families. In addition, she gave images such as "Roses grew by the front door...We had glass bottles filled with lightning bugs and brand-new swing sets in the backyard, and softball games at dusk."(pg --) Using this type of technique in writing her essay gave a clearer understanding of what she is trying to do. She was setting the table. Also, she gave a brief history of how marriages ar e supposed to be, how divorces are uncommon during that time, and the type of jobs a wife should be committed to. This technique was useful in her essay because if she did not include that history, maybe the reader would not understand the point of writing this essay, or may be confused on what is going on. A historical background can help greatly in helping the reader understand what is going on and can answer some questions to why this essay is being written.

Tuesday, October 1, 2019

Amazon Books and Writers Essay

Miss Furr and Miss Keene has a reputation of being one of Gertrude Stein’s more controversial works. Originally published in 1922, the story tells of the lives of two women who live together. The story is written with a limited lexicon and contains the word â€Å"gay† which appears over a hundred times. It is purported to be one of the first coming out stories published, and through its reprinting in Vanity Fair in 1923, the underground meaning of â€Å"gay† became more widely known (Amazon Books and Writers, 2008). Stein’s style of writing uses repetition as a literary device. Those who grew up reading Dr. Seuss will have no trouble reading Miss Furr and Miss Skeene while those who are unfamiliar with Dr. Seuss will find the text quite confusing. This is because Stein, as a linguist and naturalist, utilizes repetition as a means of achieving the natural primary processes of perception and thought (Kimball, 1998). This is the primary reason why Stein’s writing is oftentimes regarded as gibberish. However, those who study her body of work will find that it is through this method that Stein conveys â€Å"the gradually changing present of human consciousness, the instability of emotion and thought† (Perloff, 1999, p. 98). This method allows Stein to let the reader experience the thoughts being conveyed as they are being written (natural) instead of conveying the thought after it has been written (synthesized). Her use of this playful style in Miss Furr and Miss Skeene is intended to rouse confusion both literally and metaphorically to reflect the thoughts of the writer (as Stein is also a lesbian) and the characters in the story. This also enables Stein to dissect one event into many while still pertaining to that one event—like an episode of 24 where the focus is that one hour but seen in different contexts. Repeating is used here as â€Å"a deliberate regression of sorts—an attempt to get at (sometimes to get back to and recover) the â€Å"real† things lying below the surface (the unconscious, the â€Å"primitive,† the primary â€Å"raw† passions of desire, love, jealousy, power, prestige, etc. ) in order to illuminate the nuanced ways that characters negotiate subconscious desires through the coded conventions of everyday polite conversation† (Nelson 2000). Stein’s depiction of these women, like the way she usually depicts her subjects, are meant to be taken as they are. Stein’s modernist style of writing â€Å"remains impervious to such an easy reading for it never allows us to make secure judgments about characters and action† (Behling, 2001, p. 127). Thus, it is literally impossible to say if the characters were caricatures or not. Stein’s unique technique solely focuses on the action and its multiple contexts instead of one singular notion. This is evident in her use of repetition without literally repeating. Instead, each perceived repetition is in fact designed to convey a new meaning. An example of this is the repetition of the word â€Å"gay. † In its first use in the seventh sentence of the story, â€Å"she did not find it gay living in the same place she has been living,† the word â€Å"gay† is used in the context of being bored. However, with each new variation, the word â€Å"gay† is transformed to mean other things, including that of today’s contemporary definition. This method of wordplay allows for the double entendre of the story. To the (then) sophisticated, the story is about Helen Furr coming out as a lesbian, while to the less informed, it is a simple story of two women living together. This style is meant to be experienced as it was intended by the author. In fact, Stein’s works, be it prose or poetry, are often discussed out loud primarily to evoke and channel that which is â€Å"natural† while also appreciating the style’s lyricism. Hence, Miss Furr and Miss Skeene would benefit from being read aloud by allowing the reader to experience â€Å"living where many were living and cultivating in themselves something† (Stein, 1993, p. 257) References Amazon Books and Writers (2008). Gertrude Stein (1874-1946). Amazon. com. Retrieved November 21, 2008 from http://www. kirjasto. sci. fi/gstein. htm. Behling, L. (2001). The Masculine Woman in America, 1890-1935. Illinois: University of Illinois Press. Kimball, J. (1998). Gertrude Stein and the natural world. Time Sense An Electronic Quarterly on the Art of Gertrude Stein. Retrieved November 21, 2008 from http://www. tenderbuttons. com/gsonline/timesense/1_1kimball. html. Nelson, C. (2000). On Gertrude Stein and Dr. Seuss. University of Illinois. Retrieved Novenber 21, 2008 from http://www2. english. uiuc. edu/finnegan/English%20251/stein_and_seuss. htm. Perloffe, M. (1999). The Poetics of Indeterminacy: Rimbaud to Cage. Illinois: Northwestern University Press. Stein, G. (1993). â€Å"Miss Furr and Miss Keene. † In G. Stein & U. E. Dydo (Ed. ) A Stein Reader (pp. 254– 259). Illinois: Northwestern University Press.