Master of Education in Early Childhood Education

at Shorelight Group - Towson University USA

Information technology involves the selection, application, integration and administration of computing and communication technologies to meet the informational needs of individuals, organizations and society at large. The IT program prepares students to enter the workplace as IT professionals and grow into leadership positions or pursue graduate studies in the field.

• Students are expected to achieve oral proficiency at the Advanced Low level according to ACTFL standards.
• Students are expected to achieve listening comprehension at the Advanced Low level according to ACTFL standards.
• Students are expected to achieve reading comprehension at the Advanced Low level according to ACTFL standards.
• Students are expected to demonstrate written proficiency at the Advanced Low level according to ACTFL standards.

• Demonstrate an understanding of the physical, social, economic and political factors that shape the development of metropolitan areas.
• Demonstrate knowledge and understanding of the array of current challenges facing metropolitan areas.
• Critically analyze and evaluate the effectiveness of policies designed to address the challenges facing metropolitan areas.
• Conduct and present sound research on metropolitan issues.

The field of Health Education and Promotion (HEP) explores the complexities of human behavior and identifies ways to promote healthy behaviors. Health Education and Promotion prepares students to educate and empower the public to understand their health, to make healthy choices, to improve their quality of life, and to reduce disease and disability. Health educators design, market, implement and/or evaluate health education and health promotion programs. The settings in which community health educators work include, but are not limited to health departments, voluntary health agencies, hospitals, universities, nonprofit organizations, government agencies and schools.

The Health Education and Promotion major gives students the foundation needed to be effective health professionals based on principles from the behavioral, biomedical and social sciences. Through coursework and a 12-unit internship, students will graduate with a solid foundation in a variety of health topic areas including public health, health education theory and practice, and program planning and evaluation.

The Master of Science program provides students with a broad knowledge in applied mathematics with an emphasis on areas with the highest demand in business and industry. Among the areas stressed in the program are mathematical modeling, numerical computations, operations research, financial mathematics and statistical analysis. Numerical, computational and algorithmic approaches to problem solving are stressed throughout the program. Graduates of the program will be qualified to work in such fields as operations research, stochastic modeling, financial data analysis and statistics, among many others. Graduates of the program will also be prepared for further work at the doctoral level.

The main objectives of the program are:

1. To prepare individuals to apply advanced mathematical skills to problems in areas of science, business and industry;
2. To develop the students’ abilities to integrate, in a meaningful way, the use of technology in their everyday professional practice;
3. To give educators an opportunity to satisfy their in-service requirements and simultaneously enhance their knowledge of technology and enrich their mathematical backgrounds;
4. To supply students with the mathematical competency necessary for advancement to a more professional role;
5. To educate students to solve problems, to work in teams and to communicate in an interdisciplinary setting;
6. To familiarize students with the recent advances in applied mathematics;
7. To prepare students for further graduate work at the doctoral level in applied mathematics; and
8. To enrich the academic culture by providing opportunities for interaction of mathematical and industrial research.

• In the production of art and/or design work, students will demonstrate a working knowledge of the elements of art and the principles of design.
• In the production of art and/or design work, students will demonstrate a comprehensive understanding of the materials and processes of their chosen discipline.
• In creating and/or evaluating art and design work, students will recognize and demonstrate understanding of perspectives of people from cultures and situations other than their own.
• Students will articulate, through writing, verbally and through the production of a body of work, their personal aesthetic and/or professional direction.

• Marshal and arrange appropriate historical evidence from primary and secondary sources to support historical arguments.
• Demonstrate command of a body of historical knowledge related to major political, economic, social, and cultural events and issues in Western culture.
• Demonstrate command of a body of historical knowledge related to major political, economic, social, and cultural events and issues in non-Western cultures.
• Demonstrate information literacy, which includes technological competency.

• Use a working critical vocabulary to do textual and ethnographic analyses of cultural phenomena, showing an understanding of both verbal and visual texts, students own everyday experience, and the inter-relatedness of social, political, historical, and economic components of their worlds.
• Through writing, convey an understanding of a variety of critical strategies (e.g. semiotics, content analysis, structuralism) applicable to cultural studies cross-disciplinary core.
• Acquire the habits and attitudes of an inquiring mind, for looking into questions of culture in ways that resonate with students’ lives and finally even beyond these lives, into an awareness of ethical, cognitive, and emotional issues that may at first seem foreign to their own systems of cultural values.
• Evaluate critically the sources and content of information. This goal is listed among the Middle States Commission on Higher Education Expectations Regarding Information Literacy and Technological Competency.
• Understanding and applying relevant discipline-specific methodologies and strategies of inquiry.
• Engaging intellectually and seeking to understand the experiences and views of people with different cultural backgrounds and beliefs, whether in their own country or abroad.

Students majoring in Music Education are required to complete the courses listed under the requirements tab, the Music Education Professional Core Courses and the Core Curriculum. Students choose either the Instrumental Music Education Concentration or the Vocal-General Music Education Concentration. Students will also complete a criminal background check as required by the school system in which the internship is located prior to entry into the capstone internship.

The Master of Science program provides students with a broad knowledge in applied mathematics with an emphasis on areas with the highest demand in business and industry. Among the areas stressed in the program are mathematical modeling, numerical computations, operations research, financial mathematics and statistical analysis. Numerical, computational and algorithmic approaches to problem solving are stressed throughout the program. Graduates of the program will be qualified to work in such fields as operations research, stochastic modeling, financial data analysis and statistics, among many others. Graduates of the program will also be prepared for further work at the doctoral level.

The main objectives of the program are:

1. To prepare individuals to apply advanced mathematical skills to problems in areas of science, business and industry;
2. To develop the students’ abilities to integrate, in a meaningful way, the use of technology in their everyday professional practice;
3. To give educators an opportunity to satisfy their in-service requirements and simultaneously enhance their knowledge of technology and enrich their mathematical backgrounds;
4. To supply students with the mathematical competency necessary for advancement to a more professional role;
5. To educate students to solve problems, to work in teams and to communicate in an interdisciplinary setting;
6. To familiarize students with the recent advances in applied mathematics;
7. To prepare students for further graduate work at the doctoral level in applied mathematics; and
8. To enrich the academic culture by providing opportunities for interaction of mathematical and industrial research.