TNTEU - BEd New Syllabus - Semester 1 - BD1MA - Pedagogy of Mathematics - Unit I - Aims and Objectives of Teaching Mathematics - Anderson - Cognitive Domain
The Role of Mathematics In Human Daily LifeAnna Osmanay
This document discusses the definition and importance of mathematics. It notes that mathematics can be defined as a pattern of assumption-deduction-conclusion, though the exact definition may change over time. It provides examples of how mathematics is used in everyday life for things like time, money, banking, travel, and more. The document also discusses how mathematics is useful for aesthetic, philosophical, commercial, scientific, and technological purposes. It emphasizes that mathematics teaches important logical reasoning and problem-solving skills that are valuable for many career paths and aspects of daily life.
Anecdotes from the history of mathematics ways of selling mathematiDennis Almeida
1) The development of mathematics, including number systems and arithmetic, was driven by practical needs in areas like trade, taxation, and military affairs. Place value systems like the Hindu-Arabic numerals made complex calculations possible.
2) Early algebra developed out of solving practical problems involving lengths and areas. Techniques like extracting roots and solving quadratic equations were applied to problems in areas like right triangles and bone setting.
3) Geometry originated from practical construction needs but was formalized by Euclid into a deductive system. It influenced fields like art and tiling patterns. Relating geometric concepts to algebraic formulas helped develop modern algebra.
This document provides an introduction to a presentation on mathematics. It lists the names of five presenters and then provides three paragraphs explaining what mathematics is, why it is called the "mother of all sciences", and how mathematics is the foundation of other subjects. It includes brief quotes from scientists about the importance and role of mathematics in understanding the universe and reality.
The document provides an overview of mathematics in ancient Greece, covering important Greek mathematicians and their contributions. It discusses Thales of Miletus, who made early advances in geometry. It also covers Pythagoras and the Pythagorean school, whose discoveries included relationships between musical intervals and ratios. Euclid is discussed for writing the influential Elements, compiling earlier work. Archimedes made advances in areas and used a method of exhaustion to calculate pi. The document provides context on Plato, Aristotle, and others who helped develop mathematics.
The student is able to develop and use formulas to find the areas of circles and regular polygons. Key formulas include using π to find the circumference and area of a circle based on diameter or radius. For regular polygons, the student can find the area using the apothem and perimeter, or use special formulas for equilateral triangles (s2/3/4) and regular hexagons (6s2/3/4).
Euclidean geometry is a mathematical system attributed to the Alexandrian Greek mathematician Euclid, which he described in his textbook on geometry: the Elements. Euclid's method consists in assuming a small set of intuitively appealing axioms, and deducing many other propositions (theorems) from these.
Mathematics has been used since ancient times, first developing with counting. It is useful in many areas of modern life like business, cooking, and art. Mathematics is the science of shape, quantity, and arrangement, and was used by ancient Egyptians to build the pyramids using geometry and algebra. Percentages can be understood using currency denominations, and fractions can be seen by dividing fruits and vegetables. Geometry, arithmetic, and calculus are applied in fields like construction, markets, engineering, and physics. Mathematics underlies structures and is important for careers requiring university degrees.
1) The document discusses the teaching of mathematics across different grade levels, covering topics such as the nature of mathematics, scope at primary and secondary levels, strategies based on objectives like problem solving and concept attainment, theoretical basis for problem solving strategies, techniques for problem solving, and evaluating student performance.
2) Key strategies discussed include problem solving, concept attainment, and understanding goals through approaches like authority teaching, interaction, discovery and teacher-controlled presentations.
3) Evaluation of mathematics learning incorporates both testing procedures like individual/group tests and non-testing procedures such as interviews, questionnaires and anecdotal records.
The Role of Mathematics In Human Daily LifeAnna Osmanay
This document discusses the definition and importance of mathematics. It notes that mathematics can be defined as a pattern of assumption-deduction-conclusion, though the exact definition may change over time. It provides examples of how mathematics is used in everyday life for things like time, money, banking, travel, and more. The document also discusses how mathematics is useful for aesthetic, philosophical, commercial, scientific, and technological purposes. It emphasizes that mathematics teaches important logical reasoning and problem-solving skills that are valuable for many career paths and aspects of daily life.
Anecdotes from the history of mathematics ways of selling mathematiDennis Almeida
1) The development of mathematics, including number systems and arithmetic, was driven by practical needs in areas like trade, taxation, and military affairs. Place value systems like the Hindu-Arabic numerals made complex calculations possible.
2) Early algebra developed out of solving practical problems involving lengths and areas. Techniques like extracting roots and solving quadratic equations were applied to problems in areas like right triangles and bone setting.
3) Geometry originated from practical construction needs but was formalized by Euclid into a deductive system. It influenced fields like art and tiling patterns. Relating geometric concepts to algebraic formulas helped develop modern algebra.
This document provides an introduction to a presentation on mathematics. It lists the names of five presenters and then provides three paragraphs explaining what mathematics is, why it is called the "mother of all sciences", and how mathematics is the foundation of other subjects. It includes brief quotes from scientists about the importance and role of mathematics in understanding the universe and reality.
The document provides an overview of mathematics in ancient Greece, covering important Greek mathematicians and their contributions. It discusses Thales of Miletus, who made early advances in geometry. It also covers Pythagoras and the Pythagorean school, whose discoveries included relationships between musical intervals and ratios. Euclid is discussed for writing the influential Elements, compiling earlier work. Archimedes made advances in areas and used a method of exhaustion to calculate pi. The document provides context on Plato, Aristotle, and others who helped develop mathematics.
The student is able to develop and use formulas to find the areas of circles and regular polygons. Key formulas include using π to find the circumference and area of a circle based on diameter or radius. For regular polygons, the student can find the area using the apothem and perimeter, or use special formulas for equilateral triangles (s2/3/4) and regular hexagons (6s2/3/4).
Euclidean geometry is a mathematical system attributed to the Alexandrian Greek mathematician Euclid, which he described in his textbook on geometry: the Elements. Euclid's method consists in assuming a small set of intuitively appealing axioms, and deducing many other propositions (theorems) from these.
Mathematics has been used since ancient times, first developing with counting. It is useful in many areas of modern life like business, cooking, and art. Mathematics is the science of shape, quantity, and arrangement, and was used by ancient Egyptians to build the pyramids using geometry and algebra. Percentages can be understood using currency denominations, and fractions can be seen by dividing fruits and vegetables. Geometry, arithmetic, and calculus are applied in fields like construction, markets, engineering, and physics. Mathematics underlies structures and is important for careers requiring university degrees.
1) The document discusses the teaching of mathematics across different grade levels, covering topics such as the nature of mathematics, scope at primary and secondary levels, strategies based on objectives like problem solving and concept attainment, theoretical basis for problem solving strategies, techniques for problem solving, and evaluating student performance.
2) Key strategies discussed include problem solving, concept attainment, and understanding goals through approaches like authority teaching, interaction, discovery and teacher-controlled presentations.
3) Evaluation of mathematics learning incorporates both testing procedures like individual/group tests and non-testing procedures such as interviews, questionnaires and anecdotal records.
The document discusses the differences between deductive and inductive reasoning. Deductive reasoning starts with a general premise that is known to be true and uses logic to draw a specific conclusion. Inductive reasoning uses specific observations to draw a general conclusion that is probable but not certain. Examples are provided of arguments that use deductive or inductive logic.
Mathematics is a science related to measurements, calculations, and discovering relationships. It reflects civilization and has its roots in ancient Vedic literature from India. Mathematics is defined as the result of human reasoning free from experiences and its accordance of truth by Einstein, and as a way to settle in mind a habit of reasoning by Locke. Mathematics is a science of discovery, an intuitive method, the art of drawing conclusions, a system of logical processes that deals with quantitative facts and relationships. It is important for its logical sequence, abstractness, applicability, precision, generalization, and as a path to independent thinking useful for everyone.
This document provides an overview of abstract algebra and key concepts such as groups. It discusses how the word "algebra" is derived from an Arabian word meaning "union of broken parts." It also outlines important mathematicians who contributed to the development of algebra, such as Al Khwarizmi, the "father of algebra." The document defines what a set and group are, including the properties a group must satisfy like closure, associative, identity, and inverse elements. Examples of groups are given like integers, rational numbers, and matrices. Applications of group theory in fields like physics, chemistry, and technology are mentioned.
Hyperbolic geometry was developed in the 19th century as a non-Euclidean geometry that discards one of Euclid's parallel postulate. It assumes that through a point not on a given line there are multiple parallel lines. This led to discoveries like triangles having interior angles summing to less than 180 degrees. Key figures who developed it include Gauss, Bolyai, Lobachevsky, and models include the Klein model, Poincaré disk model, and hyperboloid model.
Bloom Taxonomy of Instructional ObjectivesAMME SANDHU
This document presents information on Bloom's Taxonomy of educational objectives. It discusses the three domains of cognitive, affective, and psychomotor objectives. The cognitive domain involves knowledge, comprehension, application, analysis, synthesis, and evaluation. The affective domain involves receiving, responding, valuing, organization, and characterization. The psychomotor domain involves perception, set, guided response, mechanism, and complex overt response. Bloom's Taxonomy provides a framework to classify educational goals and objectives to promote higher-order thinking and allow selection of appropriate assessment techniques.
The document discusses various philosophies and theorists regarding teaching methods, including:
- Teacher-centered vs learner-centered approaches
- Naturalism emphasizes direct experience, learning by doing, and education through the senses
- Pragmatism focuses on practical life experience
- Socratic method uses questioning to facilitate learning
- Montessori advocated activity-based learning and training the senses
- Many philosophers promoted interest-based, experience-based, and natural approaches to teaching and learning.
The document announces a mathematics project competition open to students in forms 3 and 4 at Maria Regina College Boys' Junior Lyceum. Teams of two students can participate by creating one of the following: a statistics project, charts, or a PowerPoint presentation on a given theme related to mathematics history or concepts. The top five entries will represent the school in the national competition and prizes will be awarded to the top teams nationally. Proposals are due by November 30th and completed projects by January 18th.
The document summarizes the three domains of educational objectives: cognitive, affective, and psychomotor. For the cognitive domain, it lists the six categories of objectives - knowledge, comprehension, application, analysis, synthesis, and evaluation. For the affective domain, it discusses the categories of receiving, responding, and valuing. For the psychomotor domain, it outlines the five categories of imitation, manipulation, precision, articulation, and naturalization.
Top 10 importance of mathematics in everyday lifeStat Analytica
Would you like to know the importance of mathematics? If yes, then have a look at this presentation to explore the top uses of mathematics in our daily life. Watch the presentation till the end to explore the importance of mathematics.
This document provides an overview of the history of mathematics, beginning with ancient Indian mathematicians like Aryabhata, Brahmagupta, Mahavira, and Varahamihira who made early contributions to algebra, trigonometry, and calculus. It then discusses Greek mathematicians such as Euclid, Pythagoras, and Archimedes and their foundational work in geometry and number theory. The document highlights seminal European mathematicians like Euler, Gauss, Riemann, Hilbert and their advances in areas like analysis, algebra, geometry and topology. It concludes that the collective contributions of these mathematicians established the foundations of modern mathematics.
Nature and principles of teaching and learning mathJunarie Ramirez
This document discusses effective teaching of mathematics. It outlines three phases of mathematical inquiry: (1) abstraction and symbolic representation, (2) manipulating mathematical statements, and (3) application. It also discusses the nature and principles of teaching mathematics, including that mathematics relies on both logic and creativity. Effective teaching requires understanding what students know and challenging them, as well as using worthwhile tasks to engage them intellectually. Teachers must have mathematical knowledge and commit to students' understanding.
1. Realism is a philosophy that believes sensory perceptions and objects that can be experienced through the senses truly exist independently of the mind.
2. According to educational realism, the purpose of education is to optimally develop the existing potential in students. Realists believe that learning should focus on assimilating predetermined subject matter through the teacher's organized curriculum.
3. Realism posits that knowledge comes from observation, experience and scientific reasoning of objective reality. Realists assert that fundamental values are permanent and should be taught to children.
The document provides an overview of different types of fallacies in logic. It discusses semantic fallacies, which are errors due to ambiguity or incorrect construction of language. Examples of semantic fallacies given are equivocation, composition, and division. It also discusses material fallacies, which stem from issues with the subject matter itself. Examples of material fallacies provided are accident and confusing absolute and qualified statements. The document aims to define different logical fallacies and provide examples of each.
JOURNEY OF MATHS OVER A PERIOD OF TIME..................................Pratik Sidhu
DESCRIBES IN DETAIL ANCIENT AGE ,MEDIEVAL AND PRESENT AGE OF MATHS AND ALSO THE FAMOUS MATHEMATICIANS.REALLY AN AMAZING ONE WITH ANIMATED SLIDE DESIGND..............
Mathematics can be divided into several branches that each focus on different areas of study. Some of the main branches include arithmetic, algebra, mathematical analysis, combinatorics, and geometry/topology. Arithmetic is the oldest branch and focuses on numbers and basic operations like addition and multiplication. Algebra studies the properties of numbers and methods for solving equations. Mathematical analysis examines continuous change through calculus, limits, and functions. Combinatorics analyzes discrete collections of objects and their relationships. Geometry and topology use spatial relationships and properties of shapes.
This document discusses humanism in the context of language teaching. It defines humanism as devotion to human interests and the fulfillment of human potential. A humanistic approach aims to educate the whole person intellectually and emotionally. It emphasizes self-actualization, freedom in learning, and creating a safe environment where students can discover themselves. The document examines Curran's view of humanism, which incorporates incarnation and redemption. It also discusses criticisms of the counseling-learning model, such as its lack of applicability to large classes or conventional subjects. Overall, the document analyzes how humanistic philosophy can inform language pedagogy.
The document summarizes key aspects of teaching mathematics, including:
1) The goals of mathematics are critical thinking and problem solving.
2) Mathematics should be taught using a spiral progression approach, revisiting basics at each grade level with increasing depth and breadth.
3) Effective mathematics teaching employs methods like problem-solving, concept attainment, concept formation, and direct instruction.
Mathematics is defined as a science of patterns and relationships that reveals hidden patterns in the world and relies on logic and creativity. The two main goals of teaching mathematics are developing critical thinking and problem solving skills. Learning mathematics is most effective when done through active learning and problem solving. The document then outlines the key stage standards and grade level standards for mathematics in terms of the concepts, skills, and applications students are expected to understand at each level.
This document provides an overview of mathematical language and symbols. It discusses how mathematics can be considered a language with its own precise, concise and powerful means of communicating ideas using symbols. Examples of common symbols are presented, as well as how English phrases can be translated into mathematical expressions. Sets are then introduced as collections of objects or elements that can be represented using set notation. Operations on sets like union, intersection and complement are defined along with examples.
This document discusses Bloom's revised taxonomy. It begins by outlining the original and revised terms used in Bloom's taxonomy. The revised taxonomy has six levels - remembering, understanding, applying, analyzing, evaluating, and creating. Each level is then defined and examples of questions and activities for each level are provided. Sample multiple choice questions are also included for each taxonomic level to demonstrate how they relate to different cognitive processes.
This document discusses Bloom's revised taxonomy. It provides an overview of Bloom's original taxonomy and the revised version. The revised taxonomy has six levels - remembering, understanding, applying, analyzing, evaluating, and creating. Each level is defined and examples of classroom activities and assessments are provided for each level.
The document discusses the differences between deductive and inductive reasoning. Deductive reasoning starts with a general premise that is known to be true and uses logic to draw a specific conclusion. Inductive reasoning uses specific observations to draw a general conclusion that is probable but not certain. Examples are provided of arguments that use deductive or inductive logic.
Mathematics is a science related to measurements, calculations, and discovering relationships. It reflects civilization and has its roots in ancient Vedic literature from India. Mathematics is defined as the result of human reasoning free from experiences and its accordance of truth by Einstein, and as a way to settle in mind a habit of reasoning by Locke. Mathematics is a science of discovery, an intuitive method, the art of drawing conclusions, a system of logical processes that deals with quantitative facts and relationships. It is important for its logical sequence, abstractness, applicability, precision, generalization, and as a path to independent thinking useful for everyone.
This document provides an overview of abstract algebra and key concepts such as groups. It discusses how the word "algebra" is derived from an Arabian word meaning "union of broken parts." It also outlines important mathematicians who contributed to the development of algebra, such as Al Khwarizmi, the "father of algebra." The document defines what a set and group are, including the properties a group must satisfy like closure, associative, identity, and inverse elements. Examples of groups are given like integers, rational numbers, and matrices. Applications of group theory in fields like physics, chemistry, and technology are mentioned.
Hyperbolic geometry was developed in the 19th century as a non-Euclidean geometry that discards one of Euclid's parallel postulate. It assumes that through a point not on a given line there are multiple parallel lines. This led to discoveries like triangles having interior angles summing to less than 180 degrees. Key figures who developed it include Gauss, Bolyai, Lobachevsky, and models include the Klein model, Poincaré disk model, and hyperboloid model.
Bloom Taxonomy of Instructional ObjectivesAMME SANDHU
This document presents information on Bloom's Taxonomy of educational objectives. It discusses the three domains of cognitive, affective, and psychomotor objectives. The cognitive domain involves knowledge, comprehension, application, analysis, synthesis, and evaluation. The affective domain involves receiving, responding, valuing, organization, and characterization. The psychomotor domain involves perception, set, guided response, mechanism, and complex overt response. Bloom's Taxonomy provides a framework to classify educational goals and objectives to promote higher-order thinking and allow selection of appropriate assessment techniques.
The document discusses various philosophies and theorists regarding teaching methods, including:
- Teacher-centered vs learner-centered approaches
- Naturalism emphasizes direct experience, learning by doing, and education through the senses
- Pragmatism focuses on practical life experience
- Socratic method uses questioning to facilitate learning
- Montessori advocated activity-based learning and training the senses
- Many philosophers promoted interest-based, experience-based, and natural approaches to teaching and learning.
The document announces a mathematics project competition open to students in forms 3 and 4 at Maria Regina College Boys' Junior Lyceum. Teams of two students can participate by creating one of the following: a statistics project, charts, or a PowerPoint presentation on a given theme related to mathematics history or concepts. The top five entries will represent the school in the national competition and prizes will be awarded to the top teams nationally. Proposals are due by November 30th and completed projects by January 18th.
The document summarizes the three domains of educational objectives: cognitive, affective, and psychomotor. For the cognitive domain, it lists the six categories of objectives - knowledge, comprehension, application, analysis, synthesis, and evaluation. For the affective domain, it discusses the categories of receiving, responding, and valuing. For the psychomotor domain, it outlines the five categories of imitation, manipulation, precision, articulation, and naturalization.
Top 10 importance of mathematics in everyday lifeStat Analytica
Would you like to know the importance of mathematics? If yes, then have a look at this presentation to explore the top uses of mathematics in our daily life. Watch the presentation till the end to explore the importance of mathematics.
This document provides an overview of the history of mathematics, beginning with ancient Indian mathematicians like Aryabhata, Brahmagupta, Mahavira, and Varahamihira who made early contributions to algebra, trigonometry, and calculus. It then discusses Greek mathematicians such as Euclid, Pythagoras, and Archimedes and their foundational work in geometry and number theory. The document highlights seminal European mathematicians like Euler, Gauss, Riemann, Hilbert and their advances in areas like analysis, algebra, geometry and topology. It concludes that the collective contributions of these mathematicians established the foundations of modern mathematics.
Nature and principles of teaching and learning mathJunarie Ramirez
This document discusses effective teaching of mathematics. It outlines three phases of mathematical inquiry: (1) abstraction and symbolic representation, (2) manipulating mathematical statements, and (3) application. It also discusses the nature and principles of teaching mathematics, including that mathematics relies on both logic and creativity. Effective teaching requires understanding what students know and challenging them, as well as using worthwhile tasks to engage them intellectually. Teachers must have mathematical knowledge and commit to students' understanding.
1. Realism is a philosophy that believes sensory perceptions and objects that can be experienced through the senses truly exist independently of the mind.
2. According to educational realism, the purpose of education is to optimally develop the existing potential in students. Realists believe that learning should focus on assimilating predetermined subject matter through the teacher's organized curriculum.
3. Realism posits that knowledge comes from observation, experience and scientific reasoning of objective reality. Realists assert that fundamental values are permanent and should be taught to children.
The document provides an overview of different types of fallacies in logic. It discusses semantic fallacies, which are errors due to ambiguity or incorrect construction of language. Examples of semantic fallacies given are equivocation, composition, and division. It also discusses material fallacies, which stem from issues with the subject matter itself. Examples of material fallacies provided are accident and confusing absolute and qualified statements. The document aims to define different logical fallacies and provide examples of each.
JOURNEY OF MATHS OVER A PERIOD OF TIME..................................Pratik Sidhu
DESCRIBES IN DETAIL ANCIENT AGE ,MEDIEVAL AND PRESENT AGE OF MATHS AND ALSO THE FAMOUS MATHEMATICIANS.REALLY AN AMAZING ONE WITH ANIMATED SLIDE DESIGND..............
Mathematics can be divided into several branches that each focus on different areas of study. Some of the main branches include arithmetic, algebra, mathematical analysis, combinatorics, and geometry/topology. Arithmetic is the oldest branch and focuses on numbers and basic operations like addition and multiplication. Algebra studies the properties of numbers and methods for solving equations. Mathematical analysis examines continuous change through calculus, limits, and functions. Combinatorics analyzes discrete collections of objects and their relationships. Geometry and topology use spatial relationships and properties of shapes.
This document discusses humanism in the context of language teaching. It defines humanism as devotion to human interests and the fulfillment of human potential. A humanistic approach aims to educate the whole person intellectually and emotionally. It emphasizes self-actualization, freedom in learning, and creating a safe environment where students can discover themselves. The document examines Curran's view of humanism, which incorporates incarnation and redemption. It also discusses criticisms of the counseling-learning model, such as its lack of applicability to large classes or conventional subjects. Overall, the document analyzes how humanistic philosophy can inform language pedagogy.
The document summarizes key aspects of teaching mathematics, including:
1) The goals of mathematics are critical thinking and problem solving.
2) Mathematics should be taught using a spiral progression approach, revisiting basics at each grade level with increasing depth and breadth.
3) Effective mathematics teaching employs methods like problem-solving, concept attainment, concept formation, and direct instruction.
Mathematics is defined as a science of patterns and relationships that reveals hidden patterns in the world and relies on logic and creativity. The two main goals of teaching mathematics are developing critical thinking and problem solving skills. Learning mathematics is most effective when done through active learning and problem solving. The document then outlines the key stage standards and grade level standards for mathematics in terms of the concepts, skills, and applications students are expected to understand at each level.
This document provides an overview of mathematical language and symbols. It discusses how mathematics can be considered a language with its own precise, concise and powerful means of communicating ideas using symbols. Examples of common symbols are presented, as well as how English phrases can be translated into mathematical expressions. Sets are then introduced as collections of objects or elements that can be represented using set notation. Operations on sets like union, intersection and complement are defined along with examples.
This document discusses Bloom's revised taxonomy. It begins by outlining the original and revised terms used in Bloom's taxonomy. The revised taxonomy has six levels - remembering, understanding, applying, analyzing, evaluating, and creating. Each level is then defined and examples of questions and activities for each level are provided. Sample multiple choice questions are also included for each taxonomic level to demonstrate how they relate to different cognitive processes.
This document discusses Bloom's revised taxonomy. It provides an overview of Bloom's original taxonomy and the revised version. The revised taxonomy has six levels - remembering, understanding, applying, analyzing, evaluating, and creating. Each level is defined and examples of classroom activities and assessments are provided for each level.
The document discusses Bloom's revised taxonomy, which organizes learning objectives into six levels - remembering, understanding, applying, analyzing, evaluating, and creating - and four types of knowledge - factual, conceptual, procedural, and metacognitive. It provides examples of questions teachers can ask students at each level of learning and cognitive process to develop higher-order thinking skills.
The document is a lesson log that describes a 1 hour lesson on the scientific method. It includes the learning target of describing the process of the scientific method. The lesson utilized a lecture-discussion format and used a textbook as the material.
The document discusses higher-order thinking and Bloom's Taxonomy. It provides definitions and examples of how to incorporate higher-order thinking skills in the classroom based on Bloom's original and revised taxonomy. The taxonomy involves six levels of thinking - remembering, understanding, applying, analysing, evaluating, and creating - moving from more basic recall to higher order skills. Questioning and active learning are important to engage students in higher-order thinking.
This document discusses Bloom's taxonomy, a framework for categorizing levels of thinking skills. It provides an overview of the original and revised taxonomy, which changed the categories from nouns to verbs and emphasized higher-order thinking. Each of the six cognitive levels is defined - remembering, understanding, applying, analyzing, evaluating, and creating. Examples of classroom activities and assessment products are provided for each level to illustrate how they can be incorporated into lesson planning. The role of both teachers and students is described for each level.
This document discusses Bloom's taxonomy, a framework for categorizing levels of thinking skills. It provides an overview of the original and revised taxonomy, which changed the categories from nouns to verbs and emphasized higher-order thinking. Each of the six cognitive levels is defined - remembering, understanding, applying, analyzing, evaluating, and creating. Examples of classroom activities and assessment products are provided for each level to illustrate how they can be incorporated into lesson planning. The role of both teachers and students is described for each level.
This document discusses Bloom's taxonomy, a framework for categorizing levels of thinking skills. It provides an overview of the original and revised taxonomy, which changed the categories from nouns to verbs and emphasized higher-order thinking. Each of the six cognitive levels is defined - remembering, understanding, applying, analyzing, evaluating, and creating. Examples of classroom activities and assessment products are provided for each level to illustrate how they can be incorporated into lesson planning. The role of both teachers and students is described for each level.
The document discusses Bloom's taxonomy, a framework for categorizing levels of thinking skills. It provides an overview of the original and revised taxonomy, describing the levels from remembering to creating. Examples are given of classroom activities and questions that teachers can use to engage students at each level of thinking.
The document provides an overview of Bloom's Taxonomy and higher-order thinking. It discusses the original and revised taxonomy, including changes in terms and emphasis. Each of the six cognitive levels (Remembering, Understanding, Applying, Analyzing, Evaluating, and Creating) are defined and example classroom activities are provided. The document also discusses how Bloom's Taxonomy can be applied practically in the classroom with different approaches for individual students or groups.
This document provides an overview of Bloom's Taxonomy, including the original and revised versions. It discusses the six levels of thinking in the taxonomy - Remembering, Understanding, Applying, Analyzing, Evaluating, and Creating. For each level, it provides examples of verbs and potential classroom activities and products. It is intended to help teachers plan lessons that engage students in higher-order thinking skills.
This document summarizes a workshop for developing a curriculum framework. It outlines a two-workshop process: Workshop 1 introduces the framework and generates discussion of educational vision and course philosophy; Workshop 2 maps course design to the framework and ensures balance across levels. Workshop 1 activities include revealing the curriculum framework principles, discussing participants' educational philosophies, and setting next steps. The framework aims to articulate shared educational purpose and what makes the institution special, taking a thoughtful approach to curriculum design balancing content, teaching process, and wider purpose.
This document provides an overview of Bloom's Taxonomy and higher-order thinking. It discusses the original and revised taxonomy, including changes in terms and emphasis. Each of the six cognitive levels (Remembering, Understanding, Applying, Analyzing, Evaluating, and Creating) are defined and examples of potential classroom activities are provided. The roles of teachers and students are also outlined for each level. Overall, the document serves to explain Bloom's Taxonomy and how it can be used as a framework to plan lessons and assessments that engage students in higher-order thinking skills.
This document provides an overview of Bloom's Taxonomy and higher-order thinking. It discusses the original and revised versions of Bloom's Taxonomy, including changes in terms and emphasis. Each of the six levels of thinking in the revised taxonomy - Remembering, Understanding, Applying, Analyzing, Evaluating, and Creating - are defined and example classroom activities are provided. The role of questioning and its importance within the taxonomy framework is also addressed.
The document discusses Bloom's revised taxonomy of educational objectives. The original taxonomy had six categories from lowest to highest order thinking: Knowledge, Comprehension, Application, Analysis, Synthesis, and Evaluation. The revised taxonomy renamed and reordered these categories to Remembering, Understanding, Applying, Analyzing, Evaluating, and Creating. It provides examples of verbs and classroom activities associated with each category to demonstrate different types and levels of thinking.
The document discusses higher-order thinking and Bloom's Taxonomy. It provides an overview of Bloom's Taxonomy and the revised taxonomy. The revised taxonomy changes some of the original terms and places new emphasis on its use as a planning tool. It explores each of the six levels of thinking - Remembering, Understanding, Applying, Analyzing, Evaluating, and Creating - and how they involve different forms and complexity of thinking. Questioning by teachers and students plays an important role.
Principles of test construction (10 27-2010)Omar Jacalne
The document discusses guidelines for writing different types of classroom tests, including multiple choice, true/false, matching, and short answer questions. It provides reasons for each guideline, such as avoiding confusing students with too many negatives or incomplete sentences. The document also covers Bloom's Taxonomy, which classifies learning objectives into different levels, from remembering to creating. Sample questions are provided for each level of learning, from basic recall questions to more complex questions requiring analysis, evaluation and creative thinking.
Graphic organizers are tools that help students build word knowledge and relate concepts visually. They connect content meaningfully, help students retain information, and integrate instruction creatively. Effective graphic organizers are coherent, consistently used, and address individual student needs. Teachers should use both teacher-directed and student-directed approaches with graphic organizers to assist students with organizing, retaining, and understanding information.
TAMILNADU TEACHER EDUCATION UNIVERSITY - SEMESTER II - PEDAGOGY OF MATHEMATICS - UNIT I - PEDAGOGICAL ANALYSIS - NOTES FOR FLANDERS INETERACTION ANALYSIS
TAMILNADU TEACHER EDUCATION UNIVERSITY - SEMESTER IV - II YEAR - UNIT II - HEALTH AND SAFETY EDUCATION - NOTES FOR TYPES OF WOUNDS, BITES, BURNING, FRACTURE, HEAD INJURY - FIRST AID MEASURES
TAMILNADU TEACHER EDUCATION UNIVERSITY - SEMESTER IV - II YEAR - UNIT II - HEALTH AND SAFETY EDUCATION - NOTES FOR FIRST AID - QUALITY OF FIRST AIDER - SAFETY MEASURES AT HOME, AT SCHOOL, AT PLAY GROUND
TAMILNADU TEACHER EDUCATION UNIVERSITY - SEMESTER IV - II YEAR - UNIT II - HEALTH AND SAFETY EDUCATION - NOTES FOR IMPARTING HEALTH EDUCATION IN SCHOOL
TAMILNADU TEACHER EDUCATION UNIVERSITY - SEMESTER IV - II YEAR - UNIT II - HEALTH AND SAFETY EDUCATION - NOTES FOR MEANING, CONCEPT, SCOPE, ASPECTS, AIMS AND OBJECTIVES OF HEALTH EDUCATION
TAMILNADU TEACHER EDUCATION UNIVERSITY - SEMESTER IV - II YEAR - YOGA, HEALTH AND PHYSICAL EDUCATION - NOTES FOR DIFFERENT TYPES OF ASANAS AND POSTURES
TAMILNADU TEACHER EDUCATION UNIVERSITY - SEMESTER IV - II YEAR - YOGA, HEALTH AND PHYSICAL EDUCATION - NOTES FOR MEANING, DEFINITION, APPROCHES AND CONCEPT OF YOGA
TAMIL NADU TEACHERS EDUCATION UNIVERSITY-B.ED SYLLABUS-SEMESTER IV- ELECTIVE -SPECIAL EDUCATION-UNIT 1 INTRODUCTION TO SPECIAL EDUCATION PART 1 - HISTORICAL PERSPECTIVES OF SPECIAL EDUCATION-IT IS VERY USEFUL FOR THOSE WHO HAVE TAKE SPECIAL EDUCATION AS ELECTIVE
This document provides an introduction to special education, including definitions, principles, and objectives. It outlines six key principles of special education: zero rejection, non-discriminatory evaluation, appropriate education, least restrictive environment, parental and student participation, and procedural due process. For each principle, it provides a brief explanation of what it entails, such as ensuring students are evaluated fairly and provided an individually tailored education, and that parents have educational rights and participation in their child's education.
TAMIL NADU TEACHERS EDUCATION UNIVERSITY-B.ED SYLLABUS-SEMESTER IV- ELECTIVE -SPECIAL EDUCATION-UNIT 1 INTRODUCTION TO SPECIAL EDUCATION PART 1 - IT IS VERY USEFUL FOR THOSE WHO HAVE TAKE SPECIAL EDUCATION AS ELECTIVE - MEANING AND DEFINITION OF SPECIAL EDUCATION
This document provides an overview of special education, disabilities, and development stages. It discusses the meaning and causes of disabilities, which can be physical, cognitive, sensory, or developmental and may be present at birth or occur later in life. The stages of prenatal development and potential prenatal, perinatal, and postnatal causes of disabilities are described. Various types of disabilities are classified, including visual and hearing impairments, intellectual disabilities, autism, and multiple disabilities. Twins are also discussed, distinguishing between identical, fraternal, and conjoined twins and their formation process.
TNTEU - B.Ed New Syllabus - Semester 1 - BD1TL - Teaching in Diverse Classrooms and Learning in and out of School - Tamil Medium - Hearing impairment - Sign language
TNTEU - B.Ed New Syllabus - Semester 1 - BD1TL - Teaching in Diverse Classrooms and Learning in and out of School - Tamil Medium - Physical difference and Emotional difference
TNTEU - B.Ed New Syllabus - Semester 1 - BD1TL - Teaching in Diverse Classrooms and Learning in and out of School - Tamil Medium - Developmental Stages - Prenatal, perinatal and postnatal - problems
TNTEU - B.Ed New Syllabus - Semester 1 - BD1TL - Teaching in Diverse Classrooms and Learning in and out of School - Tamil Medium - Socio Economical factors - Sensory issues
TNTEU - B.Ed New Syllabus - Semester 1 - BD1TL - Teaching in Diverse Classrooms and Learning in and out of School - Tamil Medium - Meaning of Diverse - interlligence - Learning styles - religious - Culture - Psychological Factors
A Strategic Approach: GenAI in EducationPeter Windle
Artificial Intelligence (AI) technologies such as Generative AI, Image Generators and Large Language Models have had a dramatic impact on teaching, learning and assessment over the past 18 months. The most immediate threat AI posed was to Academic Integrity with Higher Education Institutes (HEIs) focusing their efforts on combating the use of GenAI in assessment. Guidelines were developed for staff and students, policies put in place too. Innovative educators have forged paths in the use of Generative AI for teaching, learning and assessments leading to pockets of transformation springing up across HEIs, often with little or no top-down guidance, support or direction.
This Gasta posits a strategic approach to integrating AI into HEIs to prepare staff, students and the curriculum for an evolving world and workplace. We will highlight the advantages of working with these technologies beyond the realm of teaching, learning and assessment by considering prompt engineering skills, industry impact, curriculum changes, and the need for staff upskilling. In contrast, not engaging strategically with Generative AI poses risks, including falling behind peers, missed opportunities and failing to ensure our graduates remain employable. The rapid evolution of AI technologies necessitates a proactive and strategic approach if we are to remain relevant.
Strategies for Effective Upskilling is a presentation by Chinwendu Peace in a Your Skill Boost Masterclass organisation by the Excellence Foundation for South Sudan on 08th and 09th June 2024 from 1 PM to 3 PM on each day.
This presentation was provided by Steph Pollock of The American Psychological Association’s Journals Program, and Damita Snow, of The American Society of Civil Engineers (ASCE), for the initial session of NISO's 2024 Training Series "DEIA in the Scholarly Landscape." Session One: 'Setting Expectations: a DEIA Primer,' was held June 6, 2024.
How to Build a Module in Odoo 17 Using the Scaffold MethodCeline George
Odoo provides an option for creating a module by using a single line command. By using this command the user can make a whole structure of a module. It is very easy for a beginner to make a module. There is no need to make each file manually. This slide will show how to create a module using the scaffold method.
Introduction to AI for Nonprofits with Tapp NetworkTechSoup
Dive into the world of AI! Experts Jon Hill and Tareq Monaur will guide you through AI's role in enhancing nonprofit websites and basic marketing strategies, making it easy to understand and apply.
This slide is special for master students (MIBS & MIFB) in UUM. Also useful for readers who are interested in the topic of contemporary Islamic banking.
This presentation includes basic of PCOS their pathology and treatment and also Ayurveda correlation of PCOS and Ayurvedic line of treatment mentioned in classics.
Macroeconomics- Movie Location
This will be used as part of your Personal Professional Portfolio once graded.
Objective:
Prepare a presentation or a paper using research, basic comparative analysis, data organization and application of economic information. You will make an informed assessment of an economic climate outside of the United States to accomplish an entertainment industry objective.
it describes the bony anatomy including the femoral head , acetabulum, labrum . also discusses the capsule , ligaments . muscle that act on the hip joint and the range of motion are outlined. factors affecting hip joint stability and weight transmission through the joint are summarized.
A workshop hosted by the South African Journal of Science aimed at postgraduate students and early career researchers with little or no experience in writing and publishing journal articles.
1. PEDAGOGY OF MATHEMATICS
Ms R SRIDEVI
Assistant Professor of Pedagogy of Mathematics
Loyola College of Education
Chennai 34
UNIT I
AIMSANDOBJECTIVESOF TEACHINGMATHEMATICS
BLOOM’SANDANDERSON– Cognitive domain
SEMESTER I
CODE BD1MA
2. • Meaning of Mathematics
• Nature of Mathematics
• Aims and Objectives of
Mathematics
• Need and Significance of
teaching Mathematics
• Instructional objectives
• Bloom’s Taxonomy 2001
(Anderson & Krathwohl)
• Correlation between subjects
15. UNDERSTANDING
ACTIVITIES …
• Write in your own words…
• Cut out, or draw pictures to illustrate a particular event in the story.
• Report to the class…
• Illustrate what you think the main idea may have been.
• Make a cartoon strip showing the sequence of events in the story.
• Write and perform a play based on the story.
• Write a brief outline to explain this story to someone else
• Explain why the character solved the problem in this particular way
• Write a summary report of the event.
• Prepare a flow chart to illustrate the sequence of events.
• Make a colouring book.
• Paraphrase this chapter in the book.
• Retell in your own words.
• Outline the main points.
15
17. APPLICATION OR APPLYING
• Use information
• Use methods,
concepts,
theories in new
situations
• Solve problems
using required
skills or
knowledge
17
18. APPLICATION/APPLYING
• Make a model of a
PYTHOGORAS
THEOREM /
TRIGONOMETRY
• Model with paper
folding / paper
cutting...
18
21. APPLYING ACTIVITIES
• Construct a model to demonstrate how it looks or works
• Practise a play and perform it for the class
• Make a diorama to illustrate an event
• Write a diary entry
• Make a scrapbook about the area of study.
• Prepare invitations for a character’s birthday party
• Take and display a collection of photographs on a
particular topic.
• Make up a puzzle or a game about the topic.
• Write an explanation about this topic for others.
• Dress a doll in national costume.
• Make a clay model…
• Paint a mural using the same materials.
• Continue the story…
21
23. COGNITIVE DOMAIN
ANALYSIS
• Breaking down material into its parts
• Analysis of elements (identifying the
parts)
• Analysis of relationships (identifying the
relationship) and
• Analysis of organizational principles
(identifying the way the parts are
organized)
23
24. ANALYSING
The learner breaks learned information into its
parts to best understand that information.
– Comparing
– Organising
– Deconstructing
– Attributing
– Outlining
– Finding
– Structuring
– Integrating
24
28. ANALYSING ACTIVITIES
• Use a Venn Diagram to show how two topics are the same and
different
• Design a questionnaire to gather information.
• Survey classmates to find out what they think about a particular topic.
Analyse the results.
• Make a flow chart to show the critical stages.
• Classify the actions of the characters in the book
• Create a sociogram from the narrative
• Construct a graph to illustrate selected information.
• Make a family tree showing relationships.
• Devise a role play about the study area.
• Write a biography of a person studied.
• Prepare a report about the area of study.
• Conduct an investigation to produce information to support a view.
• Review a work of art in terms of form, colour and texture.
• Draw a graph
• Complete a Decision Making Matrix to help you decide which breakfast
cereal to purchase
28
30. EVALUATION OR EVALUATING
• Make judgments based on a
set of guidelines and the
value of ideas or materials.
• Compare and discriminate
between ideas
• Assess value of theories,
presentations
• Make choices based on
reasoned argument
• Verify value of evidence
• Recognize subjectivity
30
34. SYNTHESIS OR CREATING
• Use old ideas to
create new ones
• Generalize from
given facts
• Relate knowledge
from several
areas
• Predict, draw
conclusions
34
37. Creating
The learner creates new ideas and
information using what has been previously
learned.
– Designing
– Constructing
– Planning
– Producing
– Inventing
– Devising
– Making
Can you generate new products, ideas, or
ways of viewing things? 37
38. Creating cont’
• Compose
• Assemble
• Organise
• Invent
• Compile
• Forecast
• Devise
• Propose
• Construct
• Plan
• Prepare
• Develop
• Originate
• Imagine
• Generate
• Formulate
• Improve
• Act
• Predict
• Produce
• Blend
• Set up
• Devise
• Concoct
• Compile
Putting together ideas
or elements to develop
a original idea or
engage in creative
thinking.
Products include:
• Film
• Story
• Project
• Plan
• New game
• Song
• Newspaper
• Media product
• Advertisement
• Painting
38
40. Creating: Potential Activities and
Products
• Use the SCAMPER strategy to invent a new type of sports shoe
• Invent a machine to do a specific task.
• Design a robot to do your homework.
• Create a new product. Give it a name and plan a marketing campaign.
• Write about your feelings in relation to...
• Write a TV show play, puppet show, role play, song or pantomime
about..
• Design a new monetary system
• Develop a menu for a new restaurant using a variety of healthy foods
• Design a record, book or magazine cover for...
• Sell an idea
• Devise a way to...
• Make up a new language and use it in an example
• Write a jingle to advertise a new product. 40