Military Pay Assignment Example | Topics and Well Written Essays - 1250 words

Military Pay - Assignment Example In order to carryout this research, some of the resources that must be carried include electronics e.g. a laptop and mobile phone. Laptop will help in recording and storing information collected from the informants. This is a reliable storage facility because information is permanently stored. Writing materials are very essential when carrying out research. This is because the activity involves lots of recording. The researcher notes down information gathered from the informant in a notebook. These are mainly short notes that are later expounded when compiling data. Biro pens should also be enough for the number of people intended to fill the questionnaires.According to Nasu (2009), money is a major resource. In order to carry out any research, the researcher should ensure that he/she has enough funds. Most of the activities need money. For instance, money is needed to cater for transport purposes. In order to collect reliable data, the researcher should collect data in different reg ions and from different military officers then compare. Money is needed to cater for food and accommodation. What and where the researcher will eat, rest and sleep has to be paid for. The researcher should have enough airtime to feed their mobile phone to enable communications to take place, pay assistants who help in carrying out research as well as be in a position to cater for his and their medical needs. I will buy some gifts to motivate the informants. Finally, I will have the questionnaire and survey questions. that will be used to carry out the survey at hand. Personnel In order to carry out this research successfully, I have to hire somebody who will assist me carryout various activities. For instance, he/she will help me in distributing questionnaires to informants and collecting them after they have been filled. The research assistant will help in collection and documentation of data. Secondly, I will need somebody to help me go through areas I may not be familiar with. During data collection, I will visit different areas some which I may never have been before and that is why I may need somebody’s assistance. It may be difficult to access some of the areas I will have to visit because of poor or lack of roads. In this case I will need somebody to take me there through other means like motorbikes or animal transport like camels. Finally, I will need somebody to type and print the report after data collection and analysis has been completed (Orakhelashvili, 2011)

Statement of Purpose Essay Example for Free

Statement of Purpose Essay I am determined to become a top engineer and researcher in radiology, advancing the development and application of this important technology. This is an era when information technologies, such as electronics and computer science, are mushrooming throughout the world. But how about radiological science? Is it a diminishing subject without a future? Of course not! It is a research area that has a unique and indispensable position in many fields such as industry and medical science. In my point of view, radiological science can be classified as a branch of information technology. Why? Combined with computer science and electronics, radiology provides us with information that was originally thought to be invisible such as the interior structure of metal, the image of the inside of the human body and even the existence of a celestial body far away from us. With the capacity of acquiring many kinds of important information, radiology is undoubtedly a promising research field. My initial interest in radiological science was sparked by a visit to the laboratory of the Large Container Inspection System (LCIS) when I was a freshman of Tsinghua University. LCIS, specially designed for Customs, was one of the key national projects taken charge by the Department of Engineering Physics. As a fruit of radiological science, it can present the image of the interior of a large container without even opening it. The seemingly magical power was really attractive to me, a young man with a keen curiosity and the ambition to fulfill accomplishments in engineering and applied technology. In the spring of 1999, I entered the (name) Laboratory and began to assist the professor in research. The assistants job offered me a great opportunity to work with and learn from the professors and graduates in the lab, who had not only taught me a lot of knowledge in radiology, but also impressed me with their enthusiasm and devotion to this field. To be competent in the job, often went to the library to read books and science journals on radiology, such as the Nuclear Instruments and Methods and IEEE Nuclear Science ; Medical Imaging. This reading, though a little bit difficult, brought to me valuable information of the state-of-the-art technology. With my broadening mind and growing interest, I am determined to become a top engineer and researcher in radiology, advancing the development and application of this important technology. While reading the journals, I discovered that the US is the best place to pursue my further study and research because of its favorable atmosphere of research in radiology. And the University of (name), one leader in nuclear engineering, has the graduate program that I most want to be associated with. From web sites and publications introducing the (university name), I learned that you are conducting a wide range of research in radiology, much of which I am interested in, such as radiation instrument design and radiation imaging. With the world-class faculty, advanced facility, nurturing and challenging environment, your graduate school is the best place where I can extend myself with the most advanced technologies. I know that the admission to your school is very competitive and challenging. But I am confident that I am qualified and well prepared for it. The undergraduate study in Tsinghua has built for me a solid academic foundation in mathematics and physics as well as in my major. Intelligent and diligent, I received outstanding records in the courses Ive taken and my overall GPA is in the top 5% of our department, for which I have been granted scholarships for 4 consecutive years. My research ability is also outstanding. In my college years, I took advantage of every opportunity to enhance my research ability and enrich my research experience in my major. I carefully and creatively planned and conducted the experiments in all the lab courses, such as Lab of Physics and Lab of Modern Physics. In the course of Modern Physical Electronics, I, with one of my classmates, designed an experiment to test the transmission feature of electrical cable used in the oil well nuclear logging system, and proposed some advice to make improvements. I also took part in the SRT (student research training) program, doing lab work on the application of virtual instrument in radiation detection and nuclear instrumentation. In the lab, I am appreciated by my advisor, Professor (name) for I am not only able to conduct research independently, but also understand how to cooperate with others. As a college student, I am well developed in many aspects. As the monitor of the class, I showed responsibility and leadership in my work. For my excellence in English ability (please refer to the Resume), I was selected as the editor of the University English TV Station and the broadcaster of the University English Radio Station. I love sports and take part in many fields of it: I am the captain of the basketball team of the class, the fourth place winner in the University Badminton Tournament and a good I-go player. In the annual Comprehensive Quality Assessment taken by the university to scale the students all around ability, I am always the top student of my class. I can not forget the days when I was in primary school, short and weak, always failing in the sports matches. With my enthusiasm in sports and the determination to become strong, I started to exercise. Each time when I was exhausted from running, out of breath and my legs aching, it was my perseverance that had kept me on the track. With my efforts paying off, my conviction became firmer: determination and perseverance is crucial in peoples success. With my perseverance and strong interest, as well as the academic background and the research ability, I am confident that I am a suitable candidate for your graduate program. My intended field of study is radiation measurement and imaging, medical physics and other related areas in radiology science. If I could be admitted and financially aided, I would like to pursue my PhD degree there. And after that, I will come back to China, to enter industry or research institutes to promote the research and application of radiological science

Fundamental Factors Affecting Quality Essay Example for Free

Fundamental Factors Affecting Quality Essay The nine fundamental factors (9 M’s), which are affecting the quality of products and services, are: markets, money, management, men, motivation, materials, machines and mechanization. Modern information methods and mounting product requirements. 1. Market: Because of technology advancement, we could see many new products to satisfy customer wants. At the same time, the customer wants are also changing dynamically. So, it is the role of companies to identify needs and then meet it with existing technologies or by developing new technologies. 2. Money: The increased global competition necessitates huge outlays for new equipments and process. This should be rewarded by improved productivity. This is possible by minimizing quality costs associated with the maintenance and improvements of quality level. 3. Management: Because of the increased complex structure of business organization, the quality related responsibilities lie with persons at different levels in the organization. 4. Men: The rapid growth in technical knowledge leads to development of human resource with different specialization. This necessitates some groups like, system engineering group to integrate the idea of full specialization. 5. Motivation: If we fix the responsibility of achieving quality with each individual in the organization with proper motivation techniques, there will not be any problem in producing the designed quality products. 6. Materials: Selection of proper materials to meet the desired tolerance limit is also an important consideration. Quality attributes like, surface finish, strength, diameter etc., can be obtained by proper selection of material. 7. Machines and mechanization: In order to have quality products which will lead to higher productivity of any organization, we need to use advanced machines and mechanize various operations. 8. Modern information methods: The modern information methods help in storing and retrieving needed data for manufacturing, marketing and servicing. 9. Mounting product requirements: Product diversification to meet customers taste leads to intricacy in design, manufacturing and quality standards. Hence, companies should plan adequate system to tackle all these requirements.

Salinity Responsiveness in Finger Millet Analysis

Salinity Responsiveness in Finger Millet Analysis Introduction Salinity represents a strong limitation for agricultural production worldwide, especially in arid and semi-arid and restricts efficient utilization of available land resources. It is estimated that about 7% of world agricultural land that nearly one half of the total area of irrigated land could be adversely affected by salinization (Kosova 2013). Most of the cereal crops are sensitive to salinity and have limited amount of genetic variation for salinity tolerance in their germplasm. Hence genetic improvement of crops for their tolerance against salinity will be helpful in achieving targeted food production to meet the demands of growing population. Conventional plant breeding approaches have resulted in limited success in developing salt tolerant crop varieties due to multigenic nature of salt tolerance mechanisms and presence of low genetic variation in major crops. Another problem associated with conventional breeding is that if the gene is present in a wild relative of the crop, there is difficulty in transferring it to the domesticated cultivar, due to reproductive barriers and linkage drag. Recently, substantial progress in elucidation of salt tolerance mechanisms, especially salt ion signaling and transport, has been achieved due to utilization of modern genetic approaches and high-throughput methods of functional genomics. Genetic engineering has been demonstrated to be successful in developing salt tolerant crop plants (Zhang et al. 2001; Su and Wu 2004; Zhang et al. 2001). Genetic engineering strategies targeting various metabolic pathways viz., accumulation of osmolytes, antioxidant enzymes and up regulation of genes involved in stress responses like ion transporters, ion channels, transcriptional factors and various signaling pathway components have resulted in production of genetically modified crop plants exhibiting improved level of salinity tolerance (Turan et al. 2012). Identifying novel genes, analyzing their expression patterns in response to salt stress and determination of their potential functions in salt stress adaptation will provide the basis for effective genetic engineering strategies to enhance tolerance against salt stress (Cushman and Bohnert 2000). Responses against salinity stress involve many molecular processes such as ion homeostasis (membrane proteins involved in ionic transport), osmotic adjustment and water regime regulation (osmolytes) and scavenging of toxic compounds (Munns and Tester 2008). During recent years, considerable attention has been given towards elucidating the molecular basis of salt tolerance in crop plants. Several important pathways involved in salinity tolerance have been identified in model plants like Arabidopsis and rice (Zhu 2003; Walia et al. 2005; Cotsaftis et al. 2011). It is hypothesized that exploitation of halophytes or distantly related crops or wild progenitors of cereal food crops exhibiting superior levels of salinity tolerance may lead to identification of novel metabolic pathways/mechanisms/genes involved in modulating salinity stress tolerance in crop plants. Several research groups are working on understanding mechanisms of salinity tolerance in Pennisetum glaucum (Mishra et al. 2007), Avecinnia marina (Mehta et al. 2005), Porteresia coarctata (Garg et al. 2014) with a view to identify novel genes for genetic engineering of salinity tolerance in crop plants. But much more concerted efforts are needed to identify and exploit diverse crop species exhibiting superior level of salinity tolerance which will help in identifying novel genes associated with salinity tolerance. Finger millet (Eleusine coracanaL.) is an important minor cereal crop widely grown in Africa and Asia, known for its high degree of tolerance against drought, salinity and blast disease (Shailaja and Thirumeni 2007; Agarwal et al. 2011). Investigating the mechanisms and pathways involved in salt-tolerance of finger millet could facilitate better understanding of the molecular basis of salt tolerance and therefore enable the effective use of genetic and genomic approaches to improve salt tolerance in major cultivated crops. Although a wide range of significant physiological mechanisms and genetic adaptations to salinity stress has been observed, the underlying mechanisms of salt-tolerance in plants are still poorly understood. The best possible approach to explore tolerance mechanisms is to compare the components involved in stress response in tolerant as compared to sensitive plants. The other alternative to overcome this limitation would be to pick up some selected conserved genes w hich may be used to perform limited transcriptome analysis among the diverse genotypes. With this background, we planned to understand the physiological and molecular basis of salinity responsiveness in finger millet in comparison to the major cereal food crop, rice. Comparative physiological studies were conducted with a view to prove the superiority of finger millet genotypes over rice in terms of salinity tolerance. Two contrasting finger millet genotypes were used for physiological studies and expression analysis of already identified salinity responsive genes was done. This is the first study conducted to compare molecular basis of salinity tolerance in finger millet with rice. Material and Method Genetic Materials Used Seeds of two contrasting genotypes of rice (Oryza sativa) {FL478 (tolerant), White Ponni (Susceptible)} and finger millet (Eleusine coracona) {Trichy 1 (tolerant), CO12 (Susceptible)} in terms of salinity tolerance were evaluated for their responses against salinity stress under greenhouse conditions. Nucleus seeds of rice genotypes were obtained from Paddy Breeding Station, Tamil Nadu Agricultural University, Coimbatore, India and finger millet genotypes were obtained from Millet Breeding Station of Tamil Nadu Agricultural University, Coimbatore, India. Effect of salinity stress during germination Contrasting genotypes of rice {FL478 (tolerant), White Ponni (Susceptible)} and finger millet {Trichy 1 (tolerant), CO12 (Susceptible)} genotypes were assessed for their ability to germinate under salinity stress. Twenty seeds of both rice and finger millet genotypes were allowed for germination under different concentrations of NaCl solutions (0 mM, 50 mM, 100 mM, 200 mM NaCl solution) in petri-dishes with adequate replications. Germination percentage was calculated based on the number of seeds successfully germinated and vigor index was calculated based on the shoot length and root length on 10th day of germination. Effect of salinity stress during vegetative stage Imposition of salinity stress Contrasting genotypes of rice and finger millet genotypes (three seedlings per pot) were grown in perforated pots of 15 cm diameter and 20 cm height (having 3–5 mm holes on the side walls and bottom) filled with 2 kg of field soil mixed with required amount of fertilizer [1.25 g of (NH4)2SO4, 0.08 g Muriate of potash (KCl), and 0.08 g single superphosphate (SSP)]. Three pots were placed inside a large tray containing irrigation water and grown up to 20 days under greenhouse conditions. Plants were grown during June–August when air temperature ranged from 26 to 34  °C during the day and from 20 to 27  °C during the night and relative humidity ranged from 60 to 80 %. Salinity stress was imposed on 21st day when plant has reached to 5 leaf stage by adding desired concentrations of NaCl viz. 150 mM and 300 mM along with suitable control pots irrigated with normal water. Progression of salinity stress was monitored by periodically measuring the electrical conductivity (E C) of soil (from pot) and water (collected from tray) samples collected from both control and salinity stressed trays. Physiological and biochemical responses of contrasting rice and finger millet genotypes under salinity stress Contrasting genotypes of rice viz., FL478 (tolerant) and White Ponni (susceptible) and finger millet viz., CO 12 (susceptible) and Trichy 1 (tolerant) were evaluated for their physiological and biochemical responses viz., osmotic tolerance ability, salt accumulation pattern and sugar accumulation pattern during salinity stress. Measurement of Osmotic tolerance ability For assessing the osmotic tolerance ability of contrasting rice and finger millet genotypes, freshly emerged leaf (5-6cm) was marked and increase in leaf length was measured at every 24hrs interval during the initial 6 days of salinity stress along with control plants. Terminal leaf elongation rate per day (24 h) was calculated based on the observations recorded. Salt accumulation pattern Salt (Na+ and K+) uptake, transport and accumulation pattern of contrasting rice and finger millet genotypes was assessed by determining the (Na+ and K+) contents in shoots and top 3 leaves collected under normal and salinity stress conditions. Tissue samples collected at 21 DAS (days after stress) were washed with de-ionized water, dried in a hot air oven (70  °C) and then ground into fine powder. Ground samples were digested with triple acid mixture (sulfuric acid, perchloric acid and nitric acid in the ratio 9:2:1 v/v). Na+ and K+) concentrations in the triple acid digested extract were estimated using Flame Photometer (Elico, CL378). Determination of total soluble sugar content Total soluble sugar (TSS) content in the top three leaves of control and salinity stressed plants (21 days after stress) of contrasting rice and finger millet genotypes was determined using anthrone reagent method (Yemm and Willis 1954). Fresh leaf sample (100 mg) was ground in liquid nitrogen and pigments were removed using acetone extraction. TSSs were extracted in 80 % ethanol and were estimated by the anthrone reagent method using glucose as the standard. Other physiological responses of contrasting finger millet genotypes to salinity stress Gas exchange parameters were recorded in the third leaf (from top) of control and salinity stressed plants of rice and finger millet genotypes between 1000 hours and 1200 noon at 11 DAS (days after stress) using LI-COR 6400-XT photosynthesis system (LI-COR Biosciences, Nebraska, USA). The instrument was set with the following conditions: photo-synthetically active radiation 1,500  µmol of photon m−2s−1; ambient levels of CO2 and temperature; leaf area 3 cm2 and flow rate of 500  µmol s−1. RNA isolation, Northern blotting and hybridization Expression analysis of already reported salinity responsive candidate genes in response to salinity stress in the leaves of contrasting rice and finger millet genotypes were studied by northern blotting. Top 3 leaves of both rice and finger millet genotypes were collected and frozen immediately in liquid nitrogen from both control and stressed plant (300mM NaCl) when susceptible rice variety viz. White Ponni has shown salinity symptoms i.e., 11 days after salinity stress. Total RNA was isolated from stressed and control leaf samples using One Step RNA Reagent (Biobasic Inc., Canada) as per manufacturer’s protocol. The integrity of RNA was assessed by formaldehyde agarose gel electrophoresis. Total RNA was quantified using Nanodrop ND-1000 spectrophotometer (Thermo Fisher Scientific, Wilmington, DE, USA). 20ug of RNA mixed with RNA loading dye (1:1) was denatured at 75à ¢Ã‚ Ã‚ °C for 10mins and separated on denaturing agarose gel as described by Streit et al. (2008). The gel was stained with ethidium bromide and photographed. Gel was processed and RNAs were transferred to positively charged nylon membrane (Pal Corporation) using 20XSSC buffer. After capillary transfer to the membrane, RNAs were fixed by exposing the membrane to UV cross linker (Hoeffer, Piscataway). DNA fragment of candidate genes to be used as probe were isolated from rice cloned in pTZ57R TA cloning vector and confirmed by sequencing. Double-stranded probes were radioactively labelled with (ÃŽ ±-32P) dCTP using DecaLabel DNA Labeling kit (Fermentas) and probes were purified using Sephadex G-50 spin column (GE Healthcare). Radiolabelled probes were denatured on boiling water bath snap cooled on ice and used for hybridization as described by Streit et al. (2008). RNA blots were pre-hybridized in ULTRAhyb ® at 45à ¢Ã‚ Ã‚ °C for 4–8 h. The blots were hybridized with 32P-labelled denatured probes at 45à ¢Ã‚ Ã‚ °Cfor 20 h in the same but fresh buffer. The blots were initially w ashed at room temperature with 2XSSC and 0.1% SDS followed by twice wash with 1XSSC and 0.1%SDS at 45à ¢Ã‚ Ã‚ °C for 20 min each. The blots were initially washed at room temperature with 2XSSC and 0.1% SDS for 30 min and then washed with different stringencies for different probes to decrease background. Hybridized membrane were dried on blotting paper and exposed to Kodak XAE-5 film with cassette having Kodak intensifying screen for 1–6 d. The resulting radiograms were scanned in an LKB 2201 densitometric scanner. Results Effect of salinity stress on rice and finger millet genotypes during germination stage Screening of contrasting genotypes of both rice and finger millet against salinity stress at germination stage revealed the superiority of finger millet over rice in terms of salinity tolerance at germination stage. At lower concentration of salinity stress (i.e 50mM NaCl) the susceptible genotypes of both finger millet (CO12) and rice (White ponni) has shown better germination percentage and vigor index as compared to tolerant genotypes. Tolerant rice genotype FL478 was found to possess better germination percentage (35 ±2.9%) and vigor index (128.2 ±10.6) in comparison to susceptible White Ponni where germination percent and vigor index was found to be 16.7 ±1.7% and 70.9 ±7.1 respectively. Both finger millet genotypes i.e. CO12 and Trichy1 has shown almost similar germination percent and vigor index at 100mM of NaCl stress. Both rice genotypes (viz. FL476 and White Ponni) did not show any germination beyond 100 mM NaCl stress (Table 1); whereas both susceptible (CO12) and tolerant (Trichy 1) finger millet genotypes were able to germinate even at 300 mM NaCl stress (Table 1). At 300 mM NaCl stress Trichy 1 has shown better germination percent (40.0 ±1.6) and vigor index (32.0 ±1.3) as compared to CO 12 germination percent (24.4 ±0.9) and vigor index 24.4 ±0.9.

Arthur James Balfour and the Balfour Declaration :: Middle East History

Arthur James Balfour and the Balfour Declaration Highly recognised for his continuous support of the establishment of a Jewish national homeland in Palestine and the Balfour Declaration, Arthur James Balfour is one of the most prominent individual figures that contributed to the seemingly inevitable declaration of the State of Israel in 1948. The Balfour declaration added a new dimension and even greater complications to the conflict between the Arabs and Jews in Palestine. The declaration was issued on November 2nd, 1917 on behalf of the British government announcing its support in the formation of a Jewish homeland in Palestine. It is contained in a letter from the British foreign secretary and former Prime Minister, Arthur James Balfour to a prominent British Jew, Lord Rothschild. There are 3 distinct parts in the declaration. First, it favours 'the establishment in Palestine of a national home for the Jewish people'. By this declaration it became blatantly obvious that the British government, in which Balfour had a strong influence, recognised the Zionist contention that Jews had a claim to Palestine as a national home. The impact of the first clause of the declaration is somewhat lessened by the second which recognises the 'civil and religious rights of existing non-Jewish communities in Palestine'. Balfour intended to convince the Arabs that their rights would not be affected, thus the reason for the second clause os the declaration. All involved in this intricate declaration immediately saw that these two clauses could well turn out to be contradictory, which was exactly what transpired. It is found that this was the basic cause of Jewish-Arab hostility in Palestine until 1948. Instead of settling the aggression between Arabs and Jews, Balfour's declaration had the reverse effect. Jews were somewhat grateful for Balfour's intervention and support in the for the retaining of their 'rightful homeland', while the Arabs in Palestine despised the British government for allowing Balfour to intervene in such a manner. Hebrews, now known as Jews, believe Palestine is their rightful "homeland" in accordance to their Holy Book, the Torah and their covenant with their God. This is where the conflict lies because Muslims believe that Palestine is their rightful land as is said in their Holy Book, the Qur'aan. Thus being part of the reason of the never-ending aggression between these two religious denominations and uprise of violence at the proposed declaration by Arabs. This crucial affirmation of support by Balfour on behalf of the British government is often described as the first great achievement of the Zionist movement, and even as the foundation stone of the Jewish state.

gatmoral Moral Responsibility in The Great Gatsby :: Great Gatsby Essays

Moral Responsibility in The Great Gatsby Bang! Gatsby's dead! George Wilson shot Gatsby! However, who is morally responsible for killing Gatsby? The obvious answer would be George since he pulled the trigger. However, it is clear, if for no other reason than for the unimportance of George in the book, that others were also partly responsible. In The Great Gatsby, by F. Scott Fitzgerald, Tom, Daisy, and George are morally responsible for the death of Gatsby. Tom, because of his tattling on Gatsby, can be morally blamed for the murder of Gatsby. When George talked to him, Tom told George it was Gatsby's car that hit Myrtle, but he failed to mention that it was Daisy driving. Even though it was never directly mentioned, it is shown that Tom knew Daisy was the one who killed Myrtle when Nick said, "...and anybody would have said that they were conspiring together," (p.146) when referring to Tom and Daisy talking in their house. This "conspiring" was probably a plan to get Daisy away from the whole incident. Furthermore, Tom and Daisy leave town the next day, proving Tom's knowledge of Daisy's guilt by just trying to escape with her. Even knowing this, Tom still had the indecency to tell George it was Gatsby's car. Tom can also be morally blamed for the killing of Gatsby because of his affair with Myrtle. George killed Gatsby not only because he thought he killed Myrtle, but also because he was under the impression that Gatsby was the one having the affair with his wife. Tom knew George was thinking this and when George talked to him, Tom seized his opportunity to get off the hook for his sin and directed it to Gatsby, making himself even more morally incorrect for doing it. It is clearly justifiable to blame Tom for Gatsby's death. Daisy can also be put morally responsible for Gatsby's death. Her bad morals relating to Gatsby's death are displayed when Gatsby said, "Anyhow - Daisy stepped on it. I tried to make her stop, but she couldn't..." (p.145) Daisy was not morally responsible enough to stop the car after she hit Myrtle. She would also not take the rap for driving the car later, but instead, left town.

Fundraising and State Support Essay -- Public Choice Theory, Education

The examination of the relationship of fundraising and state support change was based upon an understanding of public choice theory, which is rooted in political economy and used to determine societal resource allocation preferences through the legislative process to attain the maximum social benefit (Herber, 1983). The theory has evolved over time with the core research of Buchanan and Tullock (1967) examining individual economic preferences demonstrated through the political system, establishing an approach for analyzing political decision-making. The focus of public choice theory in the context of the proposed research questions is on decision-making cost in terms of offsetting fundraising increases to reach consensus. This incorporates the direct cost involved in funding, or not funding, higher education, the opportunity costs of bargaining through the political process, and the trade-offs between competing public demands (Herber, 1983). Society could follow non-strategic behavi or in order to allow for collective decisions (Herber). Decision making costs become an outcome of the public choice bargaining in order to reach agreement; public choice involves making decisions within a dynamic context of higher education as a public good, particularly when examining the relationship of fundraising and state support (Buchanan & Tullock, 1967). Constitutional Economics Within public choice theory is the concept of constitutional economics that accounts for the rules pertaining to the legislative process that restricts the role of government and the scope of its decisions (Buchanan & Tullock, 1967). Buchanan and Tullock (1967) espoused the operational stage of rule-making that stem from the constitutional limitations. The budget pro... ...support the mission of the college. At the opposite end of the continuum is the unconstrained vision. The unconstrained vision believes that people’s nature and institutions can be improved (Sowell, 1987). The unconstrained vision welcomes direct government intervention for the good of society (Sowell, 1987). Equating Sowell’s vision to public choice theory, there is a great deal of similarity between the unconstrained vision and how an individual categorizes higher education as a public good (Sowell, 1987; Ostrom, 1975). This research is intent in finding the relationship between the change in fundraising and the change in public funding of higher education. In an effort to determine how policymakers choose to fund higher education, acknowledging the policy maker’s vision of people and institutions will help understand how they may respond to funding scenarios.