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Friday, 21 November 2014

Associate Degree in Child Development: Program Summary

Read about associate's degree programs in child development. Learn about employment and certification options for graduates, as well as common course topics within a child development program.

Essential Information

Designed with standards developed by the National Association for the Education of Young Children (NAEYC), associate's degree programs in child development prepare students for entry-level careers or to transfer into bachelor's degree programs in early childhood development. Courses in this program typically examine the physical, emotional, language and behavioral development of infants, toddlers and school-aged children, as well as covering child nutrition and family dynamics. The curriculum also prepares students to develop age-appropriate education plans and utilize creative arts to foster learning.

This 2-year associate's degree program typically culminates in a child development practicum where students work with children in an educational setting. Admittance requires a high school diploma or GED certificate; prospective students may also need to submit to a criminal background and child abuse screening before being admitted into the practicum phase of the program.

Program Coursework

Coursework prepares students to work with infant, toddler and school-aged children through studies in language development, special needs, assessment and more. Topics of discussion typically include:

  •     Child safety
  •     Child development theories
  •     Cognitive development
  •     Behavior management

Popular Career Options

Graduates of a child development associate's degree program are prepared to work with children in settings like day cares, child enrichment centers, preschools and more. Job titles of graduates may include teaching assistant, preschool teacher, Head Start teacher and daycare provider.

The U.S. Bureau of Labor Statistics (BLS) projects faster-than-average job growth of 20% for childcare workers from 2010 to 2020, while preschool teachers could see 25% growth in that same period. In 2012, childcare workers earned a median salary of $19,510 while preschool teachers earned $27,130, the BLS reported.

Original Source of Article...

Wednesday, 19 November 2014

Education in Forensic Science

Forensic science refers to the application of scientific principles to establish facts for legal matters, both criminal and civil. Like all aspects of criminal justice, becoming a forensic scientist requires the appropriate education and training, however, because the term forensic scientist can be applied to such a diverse group of professionals, a wide variety of educational requirements exist. Therefore it may be helpful to divide forensic scientists into categories when considering their educational requirements. One division is between individuals who practice forensic science full time (e.g., crime laboratory personnel, forensic pathologists) and those for whom forensics is an offshoot or specialization of their profession and expertise (many of whom work in academia, such as forensic anthropologists or forensic entomologists). A second division is between civilian forensic scientists and those who are “sworn” individuals such as police officers. As can be imagined, the educational requirements for these groups often differ substantially.

At the heart of forensic science are the crime laboratories, which exist at the city, county, regional, state, and federal levels, along with some private facilities. These range from being very basic and housing a single unit (e.g., fingerprints) all the way to ‘full service’ laboratories that have scientists in many areas, including biology, chemistry, toxicology, firearms, controlled substances, latent prints, trace evidence, questioned documents, digital evidence, polygraphs, and more. All of these individuals examine and test evidence that comes into the crime laboratory, which is usually submitted by police agencies. It is these same agencies that have crime scene investigators (CSIs) who regularly process crime scenes and collect evidence, therefore if an individual is interested in being a CSI, becoming a police officer is the usual route, although a few jurisdictions use civilians for this purpose. This is not to say that forensic scientists never process crime scenes or collect evidence, however, most of their time is spent in the laboratory analyzing evidence, and they may go their whole career without ever visiting a crime scene, or only do so in high profile cases where their specific expertise is required.

Beyond the crime laboratory lays an immense group of professions that can be associated with forensic science. In the medical field, forensic pathologists (which may include medical examiners or coroners) have a medical degree, with subsequent specialization in pathology and forensic pathology. Forensic nurses (or sexual assault nurse examiners) deal with the living, and have the unique training required to identify and treat victims of crime, as well as collect physical and verbal evidence from them. Forensic psychiatrists (a medical degree) and psychologists often examine suspects and witnesses to ascertain if they understand their circumstances and are competent to testify. They are commonly in private practice and consult with the legal system. Note that this is different than criminal ‘profiling’, which is usually carried out by individuals in police agencies who work directly with detectives, and themselves are typically sworn.

The world of academia contains a large number of forensic experts, who use their education and knowledge to assist the legal system, although this is often not their primary responsibility. For instance, almost all certified forensic entomologists have a doctorate in classic entomology or a closely related field, and teach classes and conduct research that often have nothing to do with forensics. Likewise, many forensic anthropologists received their doctorate through years of study of human skeletal remains, which might be modern but are frequently historic in nature and have no relationship to criminal activity. Forensic casework often represents a small (though very interesting) portion of their work. Academics studying animals (zoologists or veterinarians), plants (botanists), manmade structures (engineers), the earth (geologists), electronics (computer scientists) and just about any other field can one day find themselves in court explaining details of a piece of evidence to a judge and jury. The same can be said for experts in other professions, where specialized knowledge is a tremendous asset for the criminal justice system. In other words, any individual who is a respected expert in their craft may at some point become court qualified as a forensic expert.

However, most people considering a career in forensic science probably desire a full time position, which generally places them in the crime laboratory. While jurisdictions vary widely, it is not uncommon for certain specializations in the laboratory to be occupied by officers and others by civilians. (It is rare today that everyone in the laboratory must be sworn, although this was the case in some states a few years ago.) Therefore, policing is one option for a career in a crime laboratory, although a bachelor’s degree is still required. Units in the laboratory most likely to be staffed by sworn personnel are those where the knowledge and skills are learned via observation and interpretation, as opposed to analytical methodologies. Examples include firearms or fingerprints analyses, which are largely learned through an apprenticeship system. Some college level science classes, like chemistry and physics, are useful and may be required, however a full degree in the hard sciences usually is not.

In contrast, the analytical sections of the crime laboratory, including chemistry, toxicology, and the relative newcomer biology, do require a degree in natural science. Analytical chemists were historically the mainstays of the laboratory, and even today they perform the broadest array of analyses for drugs and ‘trace’ evidence such as gunshot residue, arson accelerants, hairs and fibers, soil, glass, etc. Likewise, toxicologists, who test for drugs and other substances inside the body, generally have a chemistry background, although usually with more education in the physiology of how the body metabolizes such substances. Forensic chemists are also used to conduct tests on body fluids such as blood, semen, and saliva. This ‘serology’ testing was based on body fluids’ reaction with specific antibodies, helping to include or exclude a suspect based on characteristics exemplified by ABO blood groups. However, when DNA analysis grew in importance, it became clear that most chemists did not have the educational background needed for its testing, and for the first time forensic scientists agreed upon a minimal educational background required for a specific forensic specialty, which for DNA analysis includes a bachelor’s degree in the natural sciences along with specific coursework in genetics, molecular biology, biochemistry, population genetics, and statistics.

The new educational requirements for forensic biologists put pressure on the rest of the forensic specialties regarding the academic background of their scientists. This, along with the popularity of forensic programming on television, led to a sharp increase in the number of forensic science educational programs in the U.S. Today, hundreds of colleges and universities offer some sort of forensic science education (see http://www.aafs.org/programs-within-united-states), including certificate programs, specializations, undergraduate minor, undergraduate major, and graduate degrees. The rash of new forensic science programs, some of which are undoubtedly designed merely to attract students (and their tuition dollars) to a school or department, resulted in the formation of the Forensic Science Education Programs Accreditation Commission (FEPAC) through the American Academy of Forensic Sciences. FEPAC inspects and evaluates both undergraduate and graduate forensic science programs, and their accreditation ensures that a program meets minimum standards regarding resources for students, qualifications of professors and instructors, laboratory facilities, etc. This then allows prospective students to be ‘smart shoppers’ when it comes to considering a forensic science educational program.

It should be noted that it is not required that an individual holds a forensic science degree in order to be employed in the analytical sections of a crime laboratory, and in fact, prior to the last decade or two, the majority of new employees instead held a more standard science degree such as chemistry, biochemistry, or molecular biology. However, given the number of forensic science programs and their graduates that now exist, an otherwise equivalent applicant with a more specific forensic education may be at an advantage when it comes to applying for a crime laboratory position. On the other hand, employers also consider the quality of the education obtained, and an applicant from a prestigious research university or liberal arts college may be given preference over a graduate of a forensic science program from an obscure or poorly regarded institution. Further, a strong (non-forensic) science degree from a quality educational institution opens many doors (including in the criminal justice system), while a forensic education, in spite of the science classes required, can be limiting if forensic science jobs are hard to come by or are in high demand, (today a single job opening often results in hundreds of applications), and may be seen as a less desirable specialization if a student changes his or her mind regarding a career.

Among forensic science undergraduate programs, the mode of education can vary broadly. Some take a more generalist route, wherein students have some biology, some chemistry, some toxicology, etc., while others have one or more specializations (many examples of curricula can be found at http://aafs.org/programs-within-united-states). If a student has a good idea of which part of the crime laboratory they would like to work in, a specialization can make sense, in that it is more likely that all required courses will be covered. Certainly students should make sure any program they choose includes a rigorous science curriculum that meets the requirements of the laboratories. Beyond that, students will receive specialized forensic subject matter such as crime scene processing and evidence collection, ethics, quality assurance, law and testimony, and other topics. Because a crime laboratory is just that—a laboratory—students should also look for programs that result in as much hands-on laboratory experience as possible (which makes on-line education for a forensic science career basically impossible). Internships and laboratory research opportunities (which need not be specifically in forensics) represent highly worthwhile methods for students to obtain hands-on experience, and to see if they truly enjoy a laboratory setting. Schools with limited laboratory space and equipment, and curricula that do not include extensive experience with analytical instrumentation, should be avoided.

A bachelor’s degree in forensic science can be adequate for obtaining a job in a crime laboratory, however the laboratories are increasingly looking for a graduate degree (almost always a Master’s), and a job applicant with such a degree is certainly at an advantage during the hiring process. Owing to this, undergraduates, even those with a degree in forensic science, often seek out graduate education. Naturally, an appropriate undergraduate degree is required for admittance to a graduate forensic program, however, one in forensic science is not, and in some cases a graduate program’s admissions may prefer applicants from a perceived ‘higher quality’ college or university with a hard science degree over a forensic undergraduate major, which is sometimes looked upon as a slightly ‘watered down’ science degree. Graduate programs in forensic science vary widely, both in quality (FEPAC accreditation should be considered) and in the way they approach education. As noted for undergraduate programs, some graduate programs are general in nature while others have specific tracks or specializations. At the Master’s level it is almost impossible to take all the coursework required to satisfy crime laboratory requirements for forensic chemistry, forensic toxicology, and forensic biology, so again, applicants should review programs’ curricula carefully. Further, graduate school can and should provide substantial hands-on experience in forensic testing and research, although not all programs stress these. Undertaking an internship at a local crime laboratory can be beneficial as well, however the amount of time spent in the laboratory varies based on the internship program, and interns may not be able to handle actual evidence or equipment, limiting the experience to clerical work.

In summary, the primary consideration when investigating education aimed towards a career in forensic science is the area of expertise, as that will have a profound influence on educational requirements, be it medical school to be a pathologist, nursing school to be a forensic nurse, a PhD program to be a forensic anthropologist or entomologist, computer studies for digital forensics, or myriad other avenues. If work in a crime laboratory is desired, law enforcement is one pathway, while natural science education is another. Attending a forensic science program is not an absolute requirement for working in a crime laboratory, although it does help provide familiarity with many of the issues that are specific to forensic science that would not be encountered in a more traditional science education. As is always the case, attending the best school possible, based on both reputation and resources, is highly desirable. An undergraduate degree with a forensic focus may be enough to land a job, although crime laboratories are increasingly employing individuals with graduate degrees. In this regard, obtaining the best undergraduate science education possible leaves many doors open and acts as a solid foundation for admittance into a graduate forensic program and subsequently a career in a crime laboratory.

Original Source of Article....

Bachelor of Business Administration in International Business Degree

Read about a Bachelor of Business Administration in International Business program. Get a feel for the coursework included in these programs, and see what the job growth and salary potential is for workers in international business. 


Essential Information

Bachelor of Business Administration programs with an international business concentration explore how goods are shipped across borders and how to attract investment from international clients. Students can gain a foundation in basic business methods, and they may participate in foreign language and culture classes. Many programs also provide study abroad opportunities for students who wish to study in an international setting. Universities typically expect applicants to have a high school diploma or its equivalent.

Course Topics

In these programs, students can prepare to plan, organize, direct and control the operations of a firm or organization. Coursework can include a broad focus in general management theory, international business topics, accounting and other quantitative methods. Some degree programs offer a focus on particular countries or parts of the world, such as Europe or Japan. Some common courses may include:

  •     Business law
  •     Economics
  •     Accounting
  •     Business statistics
  •     International economics
  •     International finance
  •     International human resource management
  •     International marketing management

Popular Career Options

Depending on their education and experiences, graduates can work as consultants or executives for corporations with international branches. They can also choose to work within other countries and oversee financial operations of a foreign company. If graduates are proficient in a second language, they may help executives understand each other and bridge cultural gaps. Some career options may include:

  •     International financial manager
  •     International economist
  •     International management analyst
Original Source of Article.....

Tuesday, 18 November 2014

Online Associate's Degree in Occupational Therapy

What is Occupational Therapy?

The role of occupational therapists is to help those people with disabilities - physical, mental, or emotional to regain their mobility so as to carry out their day to day activities with ease. They work on enhancing their productivity, both at home and work by increasing the strength of their muscles and flexibility in physical movements. However occupational therapy is different from physical therapy in its aims. While physical therapy is generally focused on enhancing muscle movements, occupational therapy aims at dealing with the physical, physiological and to an extent their psychological aspects of the patient. In that sense it is more holistic in its approach and treatment.

Occupational therapists and assistants instruct and back patients as they work on learning fundamental skills required in daily life. This requires the therapists to make use a large variety of, equipment and tools which will assist the patients in becoming increasingly independent. It is the occupational therapist who is in charge of carving out a plan of treatment for every patient. The job of an occupational therapist can be extremely taxing. However the job satisfaction is even high as it is rewarding to see the improvement in the patient's abilities and independence.

Online Associate's Degree


It is necessary that the occupational therapists and their assistants be licensed. Those who intend to be occupational therapist assistants require an associate's degree from an accredited school offering an occupational therapy program. An amalgamation of theoretical studies and practice, occupational degree is most definitely a valuable degree if one intends to build a career in the field of health care. It is one of the most sought after occupations as occupational therapists are hired by not only hospitals and health care centres but also other institutions like special schools, foster care homes, and even those in sports to an extent. Given the wide job opportunities, you may take a first step towards their career by start with an online associate's degree.

Coursework


Apart from general education, in subjects like English and mathematics, the core of the curriculum is constituted by courses specific to occupational therapy like research methodology, occupational therapy management, and theoretical basis of this field.

Fieldwork and internships form an integral part of the learning process and to graduate from the degree program. Thus students are expected to complete an internship or a certain amount of fieldwork. To qualify for the associate program, you must hold a high school diploma.
An associate degree can be completed in a period of two years. Graduates also must be prepared to appear for the national exam which is required for licensure.

The Attributes of Online Courses

Online education is one of the most convenient formats to graduate in occupational therapy. It offers flexibility in schedules, facilitating interaction with co-students and instructors. Students not only save up on the travelling expense and time, but also save up on the course fees. Now that it is possible to complete an occupational therapy degree online, it makes it easier and convenient for students to pursue their careers within the area of healthcare. A number of institutions offer an occupational therapy degree program online. Universities like Keiser University, Brown Mackie College, Wallace State Community College, Herzing University, and New England Institute of Technology offer an online associate's degree in occupational therapy.

Sunday, 16 November 2014

Which Associate Degree Programs Will Make You the Most Money?

If you’re looking to gain the most educational bang for your buck, it is tough to argue against an associate degree.

For two years (or approximately 20 classes) of learning and around $5,000 of tuition, you could graduate and be ready to earn just as much as someone with a bachelor’s degree. Furthermore, many four-year schools accept applications from community college graduates looking to complete their bachelor’s degree. It’s not as though an associate degree will close any doors for you.

The advantages of earning “only” an associate degree in terms of job prospects depend on your career goals and location. According to a study by Georgetown University, 28 percent of associate degree holders earn more than the average person with a bachelor’s degree. How can you land in that camp? Programs in certain industries will absolutely qualify you to succeed and find a job whose earning power is comparable to what might be available to a four-year graduate.

Career Prospects for Associate Degree Graduates

Economic Modeling Specialists Intl. has identified several of the careers in which associate degree holders comprise a large percentage of the workforce and earn approximately as much as their colleagues who have pursued four-year degrees.

Top Healthcare Industry Jobs for Graduates with Associate Degrees

  •     Radiation Therapists - median annual wage: $77,560
  •     Dental Hygienists - median annual wage: $70,210
  •     Nuclear Medicine Technologists - median annual wage: $70,180
  •     Diagnostic Medical Sonographers - median annual wage: $60, 350
  •     Respiratory Therapists - median annual wage: $55, 870

Top Technician Jobs for Graduates with Associate Degrees

    Nuclear Technicians - median annual wage: $69,060
    Aerospace Engineering and Operations Technicians - median annual wage: $61,530
    Engineering Technicians, including Civil, Mechanical, and Electrical and Electronics) - median annual wages: $47,560, $51,980, $57,850, respectively

It’s important to note that job opportunities vary significantly by region.


Sometimes, community colleges partner with regional employers to ensure a well-educated workforce, including Ford, General Motors, and John Deere. It’s a win-win, because it’s in the interest of both the school and the employer for students to be prepared for jobs that are in demand. So if you plan to attend a particular community college or are considering only schools in a certain region, check to see if the school has launched any corporate partnerships or job placement programs. It could help to guide you — and ultimately, land you a good job — as you choose an associate degree program with an eye toward career advancement.

Original Source of Article....

Thursday, 13 November 2014

Working mom earned bachelor’s degree in 16 months

Arena Dixon of Clarksville, Tenn., is just one short summer away from something she’s wanted for a long time.

In August, she will receive a college degree. At age 36, the single, working mother of two reminisces about not being sure she’d ever be able to finish what she started long ago.

“I married young, and my husband was in the military,” Dixon says. “It was hard to complete college since we moved often. Having to keep up with transcripts and transfer credits from place to place was hard.”
Dixon was excited to find a program that allowed her to complete her degree in a reasonably short amount of time. While browsing the web, Dixon found a website that introduced the Bachelor of Integrated Studies (B.I.S.) in Organizational Communication program.

After looking over all the details she knew that even as a busy working parent, the program was something she could complete. “It was geared toward adults, people just like me,” Dixon notes. “It provided the flexibility of study that I needed.”

The program that made Dixon’s dream possible began at the Murray State University Hopkinsville Regional Campus in the fall of 2007 with the express intent of fast-tracking a degree for nontraditional students.
Short courses, evening courses and online courses meant that students could complete the program in as little as 16 months.

In addition, the B.I.S. degree allows students to use the college credit and experience they already have toward a degree and lets them create their own field of study emphasis. Potential students can also earn credit for long-term job experience; ideal for a candidate who has worked at a company for several years and does not yet have their degree.

Dixon admits that financial concerns and paying for school are things to consider when thinking about entering the program. “I was fortunate enough to receive financial assistance because I’m a single mother,” she explains. “But even for students who must pay out-of-pocket, this program is affordable. Every dollar you may spend for this goes a bit further than it would for other education choices. The investment in this wonderful, wonderful program is worth every penny.”

Original Source of Article...

The world is producing more PhDs than ever before. Is it time to stop?

Scientists who attain a PhD are rightly proud — they have gained entry to an academic elite. But it is not as elite as it once was. The number of science doctorates earned each year grew by nearly 40% between 1998 and 2008, to some 34,000, in countries that are members of the Organisation for Economic Co-operation and Development (OECD). The growth shows no sign of slowing: most countries are building up their higher-education systems because they see educated workers as a key to economic growth (see 'The rise of doctorates'). But in much of the world, science PhD graduates may never get a chance to take full advantage of their qualifications.

In some countries, including the United States and Japan, people who have trained at great length and expense to be researchers confront a dwindling number of academic jobs, and an industrial sector unable to take up the slack. Supply has outstripped demand and, although few PhD holders end up unemployed, it is not clear that spending years securing this high-level qualification is worth it for a job as, for example, a high-school teacher. In other countries, such as China and India, the economies are developing fast enough to use all the PhDs they can crank out, and more — but the quality of the graduates is not consistent. Only a few nations, including Germany, are successfully tackling the problem by redefining the PhD as training for high-level positions in careers outside academia. Here, Nature examines graduate-education systems in various states of health.
Japan: A system in crisis

Of all the countries in which to graduate with a science PhD, Japan is arguably one of the worst. In the 1990s, the government set a policy to triple the number of postdocs to 10,000, and stepped up PhD recruitment to meet that goal. The policy was meant to bring Japan's science capacity up to match that of the West — but is now much criticized because, although it quickly succeeded, it gave little thought to where all those postdocs were going to end up.

Academia doesn't want them: the number of 18-year-olds entering higher education has been dropping, so universities don't need the staff. Neither does Japanese industry, which has traditionally preferred young, fresh bachelor's graduates who can be trained on the job. The science and education ministry couldn't even sell them off when, in 2009, it started offering companies around ¥4 million (US$47,000) each to take on some of the country's 18,000 unemployed postdoctoral students (one of several initiatives that have been introduced to improve the situation). "It's just hard to find a match" between postdoc and company, says Koichi Kitazawa, the head of the Japan Science and Technology Agency.

This means there are few jobs for the current crop of PhDs. Of the 1,350 people awarded doctorates in natural sciences in 2010, just over half (746) had full-time posts lined up by the time they graduated. But only 162 were in the academic sciences or technological services,; of the rest, 250 took industry positions, 256 went into education and 38 got government jobs.

With such dismal prospects, the number entering PhD programmes has dropped off (see 'Patterns of PhD production'). "Everyone tends to look at the future of the PhD labour market very pessimistically," says Kobayashi Shinichi, a specialist in science and technology workforce issues at the Research Center for University Studies at Tsukuba University.

 China: Quantity outweighs quality?

The number of PhD holders in China is going through the roof, with some 50,000 people graduating with doctorates across all disciplines in 2009 — and by some counts it now surpasses all other countries. The main problem is the low quality of many graduates.

Yongdi Zhou, a cognitive neuroscientist at the East China Normal University in Shanghai, identifies four contributing factors. The length of PhD training, at three years, is too short, many PhD supervisors are not well qualified, the system lacks quality control and there is no clear mechanism for weeding out poor students.

Even so, most Chinese PhD holders can find a job at home: China's booming economy and capacity building has absorbed them into the workforce. "Relatively speaking, it is a lot easier to find a position in academia in China compared with the United States," says Yigong Shi, a structural biologist at Tsinghua University in Beijing, and the same is true in industry. But PhD graduates can run into problems if they want to enter internationally competitive academia. To get a coveted post at a top university or research institution requires training, such as a postdoctoral position, in another country. Many researchers do not return to China, draining away the cream of the country's crop.

The quality issue should be helped by China's efforts to recruit more scholars from abroad. Shi says that more institutions are now starting to introduce thesis committees and rotations, which will make students less dependent on a single supervisor in a hierarchical system. "Major initiatives are being implemented in various graduate programmes throughout China," he says. "China is constantly going through transformations."

Singapore: Growth in all directions


The picture is much rosier in Singapore. Here, the past few years have seen major investment and expansion in the university system and in science and technology infrastructure, including the foundation of two new publicly funded universities. This has attracted students from at home and abroad. Enrolment of Singaporean nationals in PhD programmes has grown by 60% over the past five years, to 789 in all disciplines — and the country has actively recruited foreign graduate students from China, India, Iran, Turkey, eastern Europe and farther afield.

Because the university system in Singapore has been underdeveloped until now, most PhD holders go to work outside academia, but continued expansion of the universities could create more opportunities. "Not all end up earning a living from what they have been trained in," says Peter Ng, who studies biodiversity at the National University of Singapore. "Some have very different jobs — from teachers to bankers. But they all get a good job." A PhD can be lucrative, says Ng, with a graduate earning at least S$4,000 (US$3,174) a month, compared with the S$3,000 a month earned by a student with a good undergraduate degree.

"I see a PhD not just as the mastery of a discipline, but also training of the mind," says Ng. "If they later practise what they have mastered — excellent — otherwise, they can take their skill sets into a new domain and add value to it."

 United States: Supply versus demand

To Paula Stephan, an economist at Georgia State University in Atlanta who studies PhD trends, it is "scandalous" that US politicians continue to speak of a PhD shortage. The United States is second only to China in awarding science doctorates — it produced an estimated 19,733 in the life sciences and physical sciences in 2009 — and production is going up. But Stephan says that no one should applaud this trend, "unless Congress wants to put money into creating jobs for these people rather than just creating supply".

The proportion of people with science PhDs who get tenured academic positions in the sciences has been dropping steadily and industry has not fully absorbed the slack. The problem is most acute in the life sciences, in which the pace of PhD growth is biggest, yet pharmaceutical and biotechnology industries have been drastically downsizing in recent years. In 1973, 55% of US doctorates in the biological sciences secured tenure-track positions within six years of completing their PhDs, and only 2% were in a postdoc or other untenured academic position. By 2006, only 15% were in tenured positions six years after graduating, with 18% untenured (see 'What shall we do about all the PhDs?'). Figures suggest that more doctorates are taking jobs that do not require a PhD. "It's a waste of resources," says Stephan. "We're spending a lot of money training these students and then they go out and get jobs that they're not well matched for."

The poor job market has discouraged some potential students from embarking on science PhDs, says Hal Salzman, a professor of public policy at Rutgers University in New Brunswick, New Jersey. Nevertheless, production of US doctorates continues apace, fuelled by an influx of foreign students. Academic research was still the top career choice in a 2010 survey of 30,000 science and engineering PhD students and postdocs, says Henry Sauermann, who studies strategic management at the Georgia Institute of Technology in Atlanta. Many PhD courses train students specifically for that goal. Half of all science and engineering PhD recipients graduating in 2007 had spent over seven years working on their degrees, and more than one-third of candidates never finish at all.

Some universities are now experimenting with PhD programmes that better prepare graduate students for careers outside academia (see page 280). Anne Carpenter, a cellular biologist at the Broad Institute of the Massachusetts Institute of Technology (MIT) and Harvard University in Cambridge, Massachusetts, is trying to create jobs for existing PhD holders, while discouraging new ones. When she set up her lab four years ago, Carpenter hired experienced staff scientists on permanent contracts instead of the usual mix of temporary postdocs and graduate students. "The whole pyramid scheme of science made little sense to me," says Carpenter. "I couldn't in good conscience churn out a hundred graduate students and postdocs in my career."

But Carpenter has struggled to justify the cost of her staff to grant-review panels. "How do I compete with laboratories that hire postdocs for $40,000 instead of a scientist for $80,000?" she asks. Although she remains committed to her ideals, she says that she will be more open to hiring postdocs in the future.
Germany:

The progressive PhD

Germany is Europe's biggest producer of doctoral graduates, turning out some 7,000 science PhDs in 2005. After a major redesign of its doctoral education programmes over the past 20 years, the country is also well on its way to solving the oversupply problem.

Traditionally, supervisors recruited PhD students informally and trained them to follow in their academic footsteps, with little oversight from the university or research institution. But as in the rest of Europe, the number of academic positions available to graduates in Germany has remained stable or fallen. So these days, a PhD in Germany is often marketed as advanced training not only for academia — a career path pursued by the best of the best — but also for the wider workforce.

Universities now play a more formal role in student recruitment and development, and many students follow structured courses outside the lab, including classes in presenting, report writing and other transferable skills. Just under 6% of PhD graduates in science eventually go into full-time academic positions, and most will find research jobs in industry, says Thorsten Wilhelmy, who studies doctoral education for the German Council of Science and Humanities in Cologne. "The long way to professorship in Germany and the relatively low income of German academic staff makes leaving the university after the PhD a good option," he says.

Thomas Jørgensen, who heads a programme to support and develop doctoral education for the European University Association, based in Brussels, is concerned that German institutions could push reforms too far, leaving students spending so long in classes that they lack time to do research for their thesis and develop critical-thinking skills. The number of German doctorates has stagnated over the past two decades, and Jørgensen worries about this at a time when PhD production is growing in China, India and other increasingly powerful economies.

 Poland: Expansion at a cost

Growth in PhD numbers among Europe's old guard might be waning, but some of the former Eastern bloc countries, such as Poland, have seen dramatic increases. In 1990–91, Polish institutions enrolled 2,695 PhD students. This figure rose to more than 32,000 in 2008–09 as the Polish government, trying to expand the higher-education system after the fall of Communism, introduced policies to reward institutions for enrolling doctoral candidates.

Despite the growth, there are problems. A dearth of funding for doctoral studies causes high drop-out rates, says Andrzej Kraśniewski, a researcher at Warsaw University of Technology and secretary-general of the Polish Rectors Conference, an association representing Polish universities. In engineering, more than half of students will not complete their PhDs, he says. The country's economic growth has not kept pace with that of its PhD numbers, so people with doctorates can end up taking jobs below their level of expertise. And Poland needs to collect data showing that PhDs from its institutions across the country are of consistent quality, and are comparable with the rest of Europe, says Kraśniewski.

Still, in Poland as in most countries, unemployment for PhD holders is below 3%. "Employment prospects for holders of doctorates remain better than for other higher-education graduates," says Laudeline Auriol, author of an OECD report on doctorate holders between 1990 and 2006, who is now analysing doctoral-student data up to 2010. Still, a survey of scientists by Nature last year showed that PhD holders were not always more satisfied with their jobs than those without the degree, nor were they earning substantially more (see 'What's a PhD worth?').

 Egypt: Struggle to survive

Egypt is the Middle East's powerhouse for doctoral studies. In 2009, the country had about 35,000 students enrolled in doctoral programmes, up from 17,663 in 1998. But funding has not kept up with demand. The majority comes through university budgets, which are already strained by the large enrolment of students in undergraduate programmes and postgraduate studies other than PhDs. Universities have started turning to international funding and collaborations with the private sector, but this source of funding remains very limited.

The deficit translates into shortages in equipment and materials, a lack of qualified teaching staff and poor compensation for researchers. It also means that more of the funding burden is falling on the students. The squeeze takes a toll on the quality of research, and creates tension between students and supervisors. "The PhD student here in Egypt faces numerous problems," says Mounir Hana, a food scientist and PhD supervisor at Minia University, who says that he tries to help solve them. "Unfortunately, many supervisors do not bother, and end up adding one more hurdle in the student's way."

Graduates face a tough slog. As elsewhere, there are many more PhD holders in Egypt than the universities can employ as researchers and academics. The doctorate is frequently a means of climbing the civil-service hierarchy, but those in the private sector often complain that graduates are untrained in the practical skills they need, such as proposal writing and project management. Egyptian PhD holders also struggle to secure international research positions. Hana calls the overall quality of their research papers "mediocre" and says that pursuing a PhD is "worthless" except for those already working in a university. But the political upheaval in the region this year could bring about change: many academics who had left Egypt are returning, hoping to help rebuild and overhaul education and research.

Few PhDs are trained elsewhere in the Middle East — less than 50 a year in Lebanon, for example. But several world-class universities established in the oil-rich Gulf States in recent years have increased demand for PhD holders. So far, most of the researchers have been 'imported' after receiving their degrees from Western universities, but Saudi Arabia and Qatar in particular have been building up their infrastructure to start offering more PhD programmes themselves. The effect will be felt throughout the region, says Fatma Hammad, an endocrinologist and PhD supervisor at Al-Azhar University in Cairo. "Many graduates are now turning to doctoral studies because there is a large demand in the Gulf States. For them, it is a way to land jobs there and increase their income," she says.

 India: PhDs wanted

In 2004, India produced around 5,900 science, technology and engineering PhDs, a figure that has now grown to some 8,900 a year. This is still a fraction of the number from China and the United States, and the country wants many more, to match the explosive growth of its economy and population. The government is making major investments in research and higher education — including a one-third increase in the higher-education budget in 2011–12 — and is trying to attract investment from foreign universities. The hope is that up to 20,000 PhDs will graduate each year by 2020, says Thirumalachari Ramasami, the Indian government's head of science and technology.

Those targets ought to be easy to reach: India's population is young, and undergraduate education is booming (see Nature 472, 24–26; 2011). But there is little incentive to continue into a lengthy PhD programme, and only around 1% of undergraduates currently do so. Most are intent on securing jobs in industry, which require only an undergraduate degree and are much more lucrative than the public-sector academic and research jobs that need postgraduate education. Students "don't think of PhDs now, not even master's — a bachelor's is good enough to get a job", says Amit Patra, an engineer at the Indian Institute of Technology in Kharagpur.

Even after a PhD, there are few academic opportunities in India, and better-paid industry jobs are the major draw. "There is a shortage of PhDs and we have to compete with industry for that resource — the universities have very little chance of winning that game," says Patra. For many young people intent on postgraduate education, the goal is frequently to go to the United States or Europe. That was the course chosen by Manu Prakash, who went to MIT for his PhD and now runs his own experimental biophysics lab at Stanford University in California. "When I went through the system in India, the platform for doing long-term research I didn't feel was well-supported," he says.

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