Bloom's Taxonomy is a framework for categorizing levels of thinking skills that was created by educational psychologist Benjamin Bloom in 1956. It divides thinking skills into six categories moving from basic recall or recognition of facts through increasingly more complex and abstract mental levels of comprehension, application, analysis, synthesis, and evaluation. The document provides details on the origins and development of Bloom's Taxonomy, including its domains of cognitive, affective, and psychomotor skills. It also explains the categories within each domain and provides classroom examples of activities and assessments for each thinking skill level.
Bloom's Taxonomy outlines six levels of cognitive skills moving from lower to higher order thinking skills: knowledge, comprehension, application, analysis, synthesis, and evaluation. Benjamin Bloom and his team created this taxonomy to categorize educational goals and intellectual abilities. The taxonomy provides a framework to ensure educational objectives incorporate higher level tasks that develop critical thinking skills necessary for success in formal assessments.
Bloom's Taxonomy is a classification of learning objectives within education. It was created in 1956 and identifies six levels of cognitive complexity: knowledge, comprehension, application, analysis, synthesis, and evaluation. These levels help ensure instruction develops students' higher-order thinking skills. The taxonomy is a multi-tiered model used to classify objectives according to complexity of thinking. It encourages students to advance to higher levels of thought. The document also discusses the affective domain of learning involving attitudes, values, and emotions, and the psychomotor domain involving physical skills and movements.
Topic: Comparison of All Theories of Learning
Student Name: Zarqa
Class: M.Ed.
Project Name: “Young Teachers' Professional Development (TPD)"
"Project Founder: Prof. Dr. Amjad Ali Arain
Faculty of Education, University of Sindh, Pakistan
There are three main learning styles: visual, auditory, and tactile/kinesthetic. Visual learners prefer seeing information through pictures, diagrams, and demonstrations. Auditory learners prefer hearing information spoken and may read aloud. Tactile/kinesthetic learners prefer touch and physical interaction like role-playing and hands-on activities. People can take a learning styles test or reflect on favorite classes to determine their own dominant style. Understanding one's learning style helps students study more effectively by focusing on their strengths and addressing weaknesses. Teachers also have different styles like lecture, discussion, and blending approaches.
Experiential learning involves acquiring knowledge through direct observation and experience, followed by analysis and understanding. It is effective because children learn best from real-world experiences with objects and other people. Experiential learning requires personal involvement in tasks, discovery by the student, and clear objectives. It emphasizes directly experiencing the subject matter and drawing conclusions from experiences. Teachers should involve students in planning, allow reflection time, focus on positive feelings, and encourage sharing experiences with others to facilitate experiential learning.
This document provides an overview of Bloom's Taxonomy, which is a classification of learning objectives into different levels of complexity and specificity. It describes the three domains of the taxonomy - cognitive, affective, and psychomotor. The cognitive domain involves knowledge and intellectual skills, ranging from basic recall or recognition to more complex processes like analysis, synthesis and evaluation. The affective domain describes the way attitudes, values and appreciation develop, from basic awareness to internalizing values. The psychomotor domain involves physical skills and ranges from basic perception to highly complex skills that are adapted to new situations.
Bloom's Taxonomy outlines six levels of cognitive skills moving from lower to higher order thinking skills: knowledge, comprehension, application, analysis, synthesis, and evaluation. Benjamin Bloom and his team created this taxonomy to categorize educational goals and intellectual abilities. The taxonomy provides a framework to ensure educational objectives incorporate higher level tasks that develop critical thinking skills necessary for success in formal assessments.
Bloom's Taxonomy is a classification of learning objectives within education. It was created in 1956 and identifies six levels of cognitive complexity: knowledge, comprehension, application, analysis, synthesis, and evaluation. These levels help ensure instruction develops students' higher-order thinking skills. The taxonomy is a multi-tiered model used to classify objectives according to complexity of thinking. It encourages students to advance to higher levels of thought. The document also discusses the affective domain of learning involving attitudes, values, and emotions, and the psychomotor domain involving physical skills and movements.
Topic: Comparison of All Theories of Learning
Student Name: Zarqa
Class: M.Ed.
Project Name: “Young Teachers' Professional Development (TPD)"
"Project Founder: Prof. Dr. Amjad Ali Arain
Faculty of Education, University of Sindh, Pakistan
There are three main learning styles: visual, auditory, and tactile/kinesthetic. Visual learners prefer seeing information through pictures, diagrams, and demonstrations. Auditory learners prefer hearing information spoken and may read aloud. Tactile/kinesthetic learners prefer touch and physical interaction like role-playing and hands-on activities. People can take a learning styles test or reflect on favorite classes to determine their own dominant style. Understanding one's learning style helps students study more effectively by focusing on their strengths and addressing weaknesses. Teachers also have different styles like lecture, discussion, and blending approaches.
Experiential learning involves acquiring knowledge through direct observation and experience, followed by analysis and understanding. It is effective because children learn best from real-world experiences with objects and other people. Experiential learning requires personal involvement in tasks, discovery by the student, and clear objectives. It emphasizes directly experiencing the subject matter and drawing conclusions from experiences. Teachers should involve students in planning, allow reflection time, focus on positive feelings, and encourage sharing experiences with others to facilitate experiential learning.
This document provides an overview of Bloom's Taxonomy, which is a classification of learning objectives into different levels of complexity and specificity. It describes the three domains of the taxonomy - cognitive, affective, and psychomotor. The cognitive domain involves knowledge and intellectual skills, ranging from basic recall or recognition to more complex processes like analysis, synthesis and evaluation. The affective domain describes the way attitudes, values and appreciation develop, from basic awareness to internalizing values. The psychomotor domain involves physical skills and ranges from basic perception to highly complex skills that are adapted to new situations.
Effective classroom management is directly linked to student achievement and behavior, while ineffective management can lead to teacher burnout. Proper planning through clearly established rules and procedures, as well as an organized physical space, can help control disruptions. In contrast, a lack of planning and loss of control in the classroom negatively impacts the teacher's effectiveness and student learning. This research aims to determine what makes classroom management successful or unsuccessful.
This document discusses principles for effective instruction of 21st century learners. It recommends that teachers establish engaging learning environments, assess students' prior knowledge, consider individual differences, state clear objectives, develop metacognitive skills, provide social interaction and real-world contexts, and offer frequent feedback. Teachers should also be competent using technology and media according to national standards, and leverage various text sources while addressing potential disadvantages like reading level. The goal is to prepare students for success through motivated, relevant learning experiences.
This document discusses learning styles, which are individual preferences for acquiring and learning information. It identifies three major categories of learning styles: cognitive, sensory, and personality.
Cognitive styles consider mental processes and include field independence/dependence, global/analytic, and reflective/impulsive styles. Sensory styles focus on physical channels and include auditory, visual, kinesthetic, and multi-sensory styles. Personality styles examine traits like extraversion/introversion and tolerance for ambiguity.
Understanding learning styles can help teachers design lessons catered to different preferences and allow students to identify their own strengths. Accommodating various styles can improve the learning process.
This document discusses lesson planning and Bloom's Taxonomy. It provides definitions of a lesson plan as a guide for classroom instruction and as a framework for purposeful learning. The importance of lesson plans for new teachers and those in training programs is explained. Key points of lesson plans include serving as a checklist, keeping lessons orderly, and allowing teachers to improve. Bloom's Taxonomy for the cognitive, affective, and psychomotor domains is briefly explained. Verbs are provided as examples for writing objectives for each level of Bloom's Taxonomy.
This document discusses various topics related to classroom management and effective teaching. It begins with icebreakers and defining the roles of a 21st century teacher. It then addresses whether teaching skills are innate or can be developed, listing key skills like pedagogical, technical, personal, and social skills. Instruction patterns like lectures, questioning techniques, group work and individual work are covered. Effective classroom management tools include pair work, group work, clear instructions, eliciting responses through questions, and incorporating technology. The document emphasizes developing a variety of higher-order questioning techniques and using multimedia aids and modern technologies in the classroom.
This document discusses reflective learning and the reflective process. Reflective learning involves internally examining experiences which triggers new ideas and perspectives. It is central to experiential learning. The Gibbs Reflective Cycle is presented as a structured model to guide reflection, with stages including description, feelings, evaluation, analysis, conclusion, and action plan. Students are instructed to use the reflection sheet questions to reflect on and discuss their most successful, embarrassing, exciting, or disappointing personal experiences.
This document provides guidance on writing effective learning objectives. It discusses the importance of learning objectives, workshop objectives on writing objectives, the basics of objectives, levels of objectives, and the ABCDS (audience, behavior, condition, degree) of objectives. It covers Bloom's taxonomy, problematic words to avoid, characteristics of good versus bad objectives, and how to assess objectives. Examples are provided throughout to illustrate good and bad objectives. The document concludes with tips and contact information for its author.
The document discusses three major learning theories that provide a framework for instructional design: behavioral, cognitive, and social learning theory. Behavioral learning theory examines connectionism, classical conditioning, and operant conditioning. Cognitive learning theory looks at gestalt theory, information processing theory, and schema theory. Social learning theory focuses on how people learn from their environment through observation and modeling. Instructional design applications informed by these learning theories include task analysis, objectives, feedback, rehearsal strategies, and considering the impact of social models.
The document discusses learning objectives and how to write them effectively. It defines learning objectives as statements of what the learner will know, understand, or be able to do after engaging in learning. Well-written objectives are essential to developing strong training materials. Objectives should be specific, measurable, action-oriented, reasonable, and time-bound (SMART). They should include an action verb describing the expected behavior, any conditions, and the desired degree or level of achievement. Developing clear learning objectives is important for guiding learners, trainers, and stakeholders.
This document provides guidance for faculty on how to handle difficult, disruptive, and distressed students in order to maintain a successful learning environment. It defines different types of challenging students and lists potential signs of issues like mental health concerns. The goals are for faculty to understand their role in managing the classroom environment, recognize signs of student issues, and know how to access campus resources to help students. Specific tips are provided on de-escalating situations, communicating effectively with students, and referring students to counseling and other support services as needed.
This document discusses the results of three learning style inventories taken by the author. The inventories showed a fairly even distribution between visual and tactile/kinesthetic styles, with approximately 8% auditory. Characteristics of each learning style are provided, with visual learners preferring observation over action, auditory learners enjoying talking and music, and kinesthetic learners liking physical activities and touch. The author's class is summarized as having a similar fairly even distribution between visual and tactile/kinesthetic styles, with around 8% auditory.
This document discusses different teaching approaches including constructivism, cooperative learning, inquiry-based learning, and contextualized learning. Constructivism holds that people build knowledge through experiences and interactions. Cooperative learning involves students working together to solve problems or tasks in small groups. Inquiry-based learning has students construct their own knowledge through experiences rather than being passive receivers of information from the teacher. Contextualized learning places learning in real-world contexts to make it more meaningful and engaging for students.
The document discusses Kolb's learning model and its application to young adults. Kolb's model proposes a four stage learning cycle of concrete experience, reflective observation, abstract conceptualization, and active experimentation. It also identifies four learning styles. However, the document notes that Kolb's model does not fully consider environmental and developmental factors that influence learning. While aspects of the model could be useful for education, it may have limited applicability to young adults from 18-25 years old still developing cognitively. A supportive environment is important for positive learning experiences during this stage.
The document discusses strategies for effective classroom management, noting that there is a direct correlation between classroom management style and student academic achievement. It states that temporary "management" plans focusing on rules and punishments are not truly effective, and that good classroom management is not dependent on factors like experience or school environment. Effective classroom management requires addressing the underlying causes of issues rather than just the symptoms.
UTPL The importance of student motivationUTPL UTPL
Motivation is one of the most important factors for success in learning a new language. There are two main types of motivation - intrinsic motivation, which comes from enjoying an activity itself, and extrinsic motivation, which comes from external rewards. Teachers can help motivate students by finding creative ways to teach that awaken students' interest, using appropriate materials, and creating a supportive learning environment where students feel valued.
The document discusses different learning styles, including the visual learning style. It describes the VAK model which categorizes learners as visual, auditory, or kinesthetic based on how they receive and process information. Visual learners tend to observe things like pictures, demonstrations, and films in order to improve their knowledge. They understand written instructions better than oral ones and use highlighting, color coding, mind maps and other visual techniques to memorize information.
The document discusses inquiry-based learning for teaching elementary mathematics. It involves asking open-ended questions to help students construct their own understanding through experiences and reflection, rather than direct teaching. The teacher acts as a facilitator by planning learning units, posing questions, and designing exploration activities to guide students at different levels of inquiry, from structured with direct instructions to open-ended problems that require higher-order thinking. Inquiry levels can be coupled to suit different students' needs.
This document discusses the Revised Bloom's Taxonomy and improving student thinking. It provides an overview of Bloom's Taxonomy, noting that the revised version changes the terminology, structure, and emphasis. The goal is to help teachers develop lessons and assessments that engage students in higher-order thinking skills like analysis, evaluation, and creation.
The document discusses Bloom's Taxonomy, which is a framework for categorizing educational learning objectives into levels of complexity and specificity. It was created in the 1950s by Benjamin Bloom and categorizes learning into three domains: cognitive, affective, and psychomotor. The cognitive domain deals with mental skills and knowledge and includes categories like remembering, understanding, applying, analyzing, evaluating, and creating. The document provides detailed explanations and examples of each category in Bloom's Taxonomy. It also discusses revisions made to Bloom's Taxonomy in the 1990s.
This document provides an overview of Bloom's Taxonomy and higher-order thinking skills. It discusses the original taxonomy developed by Benjamin Bloom in the 1950s and the revised version created by Lorin Anderson in the 1990s. The taxonomy organizes six levels of thinking from basic recall to more complex levels of analysis, evaluation and creation. It also discusses the importance of questioning and applying the taxonomy to lesson planning.
Effective classroom management is directly linked to student achievement and behavior, while ineffective management can lead to teacher burnout. Proper planning through clearly established rules and procedures, as well as an organized physical space, can help control disruptions. In contrast, a lack of planning and loss of control in the classroom negatively impacts the teacher's effectiveness and student learning. This research aims to determine what makes classroom management successful or unsuccessful.
This document discusses principles for effective instruction of 21st century learners. It recommends that teachers establish engaging learning environments, assess students' prior knowledge, consider individual differences, state clear objectives, develop metacognitive skills, provide social interaction and real-world contexts, and offer frequent feedback. Teachers should also be competent using technology and media according to national standards, and leverage various text sources while addressing potential disadvantages like reading level. The goal is to prepare students for success through motivated, relevant learning experiences.
This document discusses learning styles, which are individual preferences for acquiring and learning information. It identifies three major categories of learning styles: cognitive, sensory, and personality.
Cognitive styles consider mental processes and include field independence/dependence, global/analytic, and reflective/impulsive styles. Sensory styles focus on physical channels and include auditory, visual, kinesthetic, and multi-sensory styles. Personality styles examine traits like extraversion/introversion and tolerance for ambiguity.
Understanding learning styles can help teachers design lessons catered to different preferences and allow students to identify their own strengths. Accommodating various styles can improve the learning process.
This document discusses lesson planning and Bloom's Taxonomy. It provides definitions of a lesson plan as a guide for classroom instruction and as a framework for purposeful learning. The importance of lesson plans for new teachers and those in training programs is explained. Key points of lesson plans include serving as a checklist, keeping lessons orderly, and allowing teachers to improve. Bloom's Taxonomy for the cognitive, affective, and psychomotor domains is briefly explained. Verbs are provided as examples for writing objectives for each level of Bloom's Taxonomy.
This document discusses various topics related to classroom management and effective teaching. It begins with icebreakers and defining the roles of a 21st century teacher. It then addresses whether teaching skills are innate or can be developed, listing key skills like pedagogical, technical, personal, and social skills. Instruction patterns like lectures, questioning techniques, group work and individual work are covered. Effective classroom management tools include pair work, group work, clear instructions, eliciting responses through questions, and incorporating technology. The document emphasizes developing a variety of higher-order questioning techniques and using multimedia aids and modern technologies in the classroom.
This document discusses reflective learning and the reflective process. Reflective learning involves internally examining experiences which triggers new ideas and perspectives. It is central to experiential learning. The Gibbs Reflective Cycle is presented as a structured model to guide reflection, with stages including description, feelings, evaluation, analysis, conclusion, and action plan. Students are instructed to use the reflection sheet questions to reflect on and discuss their most successful, embarrassing, exciting, or disappointing personal experiences.
This document provides guidance on writing effective learning objectives. It discusses the importance of learning objectives, workshop objectives on writing objectives, the basics of objectives, levels of objectives, and the ABCDS (audience, behavior, condition, degree) of objectives. It covers Bloom's taxonomy, problematic words to avoid, characteristics of good versus bad objectives, and how to assess objectives. Examples are provided throughout to illustrate good and bad objectives. The document concludes with tips and contact information for its author.
The document discusses three major learning theories that provide a framework for instructional design: behavioral, cognitive, and social learning theory. Behavioral learning theory examines connectionism, classical conditioning, and operant conditioning. Cognitive learning theory looks at gestalt theory, information processing theory, and schema theory. Social learning theory focuses on how people learn from their environment through observation and modeling. Instructional design applications informed by these learning theories include task analysis, objectives, feedback, rehearsal strategies, and considering the impact of social models.
The document discusses learning objectives and how to write them effectively. It defines learning objectives as statements of what the learner will know, understand, or be able to do after engaging in learning. Well-written objectives are essential to developing strong training materials. Objectives should be specific, measurable, action-oriented, reasonable, and time-bound (SMART). They should include an action verb describing the expected behavior, any conditions, and the desired degree or level of achievement. Developing clear learning objectives is important for guiding learners, trainers, and stakeholders.
This document provides guidance for faculty on how to handle difficult, disruptive, and distressed students in order to maintain a successful learning environment. It defines different types of challenging students and lists potential signs of issues like mental health concerns. The goals are for faculty to understand their role in managing the classroom environment, recognize signs of student issues, and know how to access campus resources to help students. Specific tips are provided on de-escalating situations, communicating effectively with students, and referring students to counseling and other support services as needed.
This document discusses the results of three learning style inventories taken by the author. The inventories showed a fairly even distribution between visual and tactile/kinesthetic styles, with approximately 8% auditory. Characteristics of each learning style are provided, with visual learners preferring observation over action, auditory learners enjoying talking and music, and kinesthetic learners liking physical activities and touch. The author's class is summarized as having a similar fairly even distribution between visual and tactile/kinesthetic styles, with around 8% auditory.
This document discusses different teaching approaches including constructivism, cooperative learning, inquiry-based learning, and contextualized learning. Constructivism holds that people build knowledge through experiences and interactions. Cooperative learning involves students working together to solve problems or tasks in small groups. Inquiry-based learning has students construct their own knowledge through experiences rather than being passive receivers of information from the teacher. Contextualized learning places learning in real-world contexts to make it more meaningful and engaging for students.
The document discusses Kolb's learning model and its application to young adults. Kolb's model proposes a four stage learning cycle of concrete experience, reflective observation, abstract conceptualization, and active experimentation. It also identifies four learning styles. However, the document notes that Kolb's model does not fully consider environmental and developmental factors that influence learning. While aspects of the model could be useful for education, it may have limited applicability to young adults from 18-25 years old still developing cognitively. A supportive environment is important for positive learning experiences during this stage.
The document discusses strategies for effective classroom management, noting that there is a direct correlation between classroom management style and student academic achievement. It states that temporary "management" plans focusing on rules and punishments are not truly effective, and that good classroom management is not dependent on factors like experience or school environment. Effective classroom management requires addressing the underlying causes of issues rather than just the symptoms.
UTPL The importance of student motivationUTPL UTPL
Motivation is one of the most important factors for success in learning a new language. There are two main types of motivation - intrinsic motivation, which comes from enjoying an activity itself, and extrinsic motivation, which comes from external rewards. Teachers can help motivate students by finding creative ways to teach that awaken students' interest, using appropriate materials, and creating a supportive learning environment where students feel valued.
The document discusses different learning styles, including the visual learning style. It describes the VAK model which categorizes learners as visual, auditory, or kinesthetic based on how they receive and process information. Visual learners tend to observe things like pictures, demonstrations, and films in order to improve their knowledge. They understand written instructions better than oral ones and use highlighting, color coding, mind maps and other visual techniques to memorize information.
The document discusses inquiry-based learning for teaching elementary mathematics. It involves asking open-ended questions to help students construct their own understanding through experiences and reflection, rather than direct teaching. The teacher acts as a facilitator by planning learning units, posing questions, and designing exploration activities to guide students at different levels of inquiry, from structured with direct instructions to open-ended problems that require higher-order thinking. Inquiry levels can be coupled to suit different students' needs.
This document discusses the Revised Bloom's Taxonomy and improving student thinking. It provides an overview of Bloom's Taxonomy, noting that the revised version changes the terminology, structure, and emphasis. The goal is to help teachers develop lessons and assessments that engage students in higher-order thinking skills like analysis, evaluation, and creation.
The document discusses Bloom's Taxonomy, which is a framework for categorizing educational learning objectives into levels of complexity and specificity. It was created in the 1950s by Benjamin Bloom and categorizes learning into three domains: cognitive, affective, and psychomotor. The cognitive domain deals with mental skills and knowledge and includes categories like remembering, understanding, applying, analyzing, evaluating, and creating. The document provides detailed explanations and examples of each category in Bloom's Taxonomy. It also discusses revisions made to Bloom's Taxonomy in the 1990s.
This document provides an overview of Bloom's Taxonomy and higher-order thinking skills. It discusses the original taxonomy developed by Benjamin Bloom in the 1950s and the revised version created by Lorin Anderson in the 1990s. The taxonomy organizes six levels of thinking from basic recall to more complex levels of analysis, evaluation and creation. It also discusses the importance of questioning and applying the taxonomy to lesson planning.
1. Bloom's Taxonomy is a classification of learning objectives within education created by Benjamin Bloom in 1956 to promote higher forms of thinking in education, such as analyzing and evaluating concepts, rather than just remembering facts.
2. It classifies educational learning objectives into six levels, from lower order to higher order thinking skills - remembering, understanding, applying, analyzing, evaluating, and creating.
3. The levels progress from basic recall or recognition of facts, concepts and procedures, to more complex and abstract mental levels, including skills, behaviors, and attitudes. Each level is more complex than the previous one.
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.
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.
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.
The document discusses Bloom's Revised Taxonomy, which organizes thinking skills into six levels from basic to more complex. It provides an overview of the original taxonomy and revisions made, including changing the names of categories from nouns to verbs. Examples are given of classroom activities and questions teachers can use to engage students at each level of thinking. The taxonomy can be applied to curriculum planning, instruction, and assessment.
The document discusses Bloom's Revised Taxonomy, which organizes thinking skills into six levels from basic to more complex. It outlines the original and revised terms, with changes made to better reflect active thinking processes. Examples of classroom activities are provided for each of the six levels - Remembering, Understanding, Applying, Analyzing, Evaluating, and Creating.
The document discusses Bloom's Revised Taxonomy, which organizes thinking skills into six levels from basic to more complex. It provides an overview of the original taxonomy and revisions made, including changing the names of categories from nouns to verbs. Examples are given of classroom activities and questions teachers can use to engage students at each level of thinking.
The document discusses Bloom's Revised Taxonomy, which organizes thinking skills into six levels from basic to more complex. It provides an overview of the original taxonomy and changes made in the revision, including renaming categories from nouns to verbs and emphasizing explanation over lists. Examples are given of classroom activities and assessments for each of the six levels: remembering, understanding, applying, analyzing, evaluating, and creating.
The document discusses Bloom's Revised Taxonomy, which organizes thinking skills into six levels from basic to more complex. It provides an overview of the original taxonomy and changes made in the revision, including renaming categories from nouns to verbs and shifting emphasis to applications in curriculum planning. Productive Pedagogies are also mentioned, which aim to engage students in higher-order thinking for a greater portion of lessons.
The document discusses Bloom's Revised Taxonomy, which organizes thinking skills into six levels from basic to more complex. It provides an overview of the original taxonomy and changes made in the revision, including renaming categories from nouns to verbs and emphasizing explanation over lists. Examples are given of classroom activities and assessments for each of the six levels: remembering, understanding, applying, analyzing, evaluating, and creating.
The document discusses Bloom's Revised Taxonomy, which organizes thinking skills into six levels from basic to more complex. It provides an overview of the original taxonomy and changes made in the revision, including renaming categories from nouns to verbs and emphasizing explanation over lists. Examples are given of classroom activities and assessments for each of the six levels: remembering, understanding, applying, analyzing, evaluating, and creating.
The document discusses Bloom's Revised Taxonomy, a framework for categorizing levels of thinking skills. It provides an overview of the original taxonomy developed in the 1950s and revisions made in the 1990s. The revisions include changing the categories from nouns to verbs and emphasizing explanation over memorization. The taxonomy helps teachers design lessons and assessments that engage students at different levels of thinking from remembering to creating.
This document provides an overview of Bloom's Taxonomy, a classification of levels of thinking skills. It discusses the six main cognitive levels - Remembering, Understanding, Applying, Analyzing, Evaluating, and Creating. For each level, it lists thinking verbs associated with that level and provides potential classroom roles and activities. It also provides examples of questions teachers could ask students to target each of the different cognitive levels.
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.
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 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 Benjamin Bloom's taxonomy of educational objectives, which provides a framework for classifying learning goals and outcomes. The taxonomy aims to serve as a common language for communication about learning across subjects and grades. It also allows educators to determine how objectives, activities, and assessments align within a course. Bloom's original taxonomy ordered objectives from simple to complex and concrete to abstract. It has since been revised such that objectives consist of a subject-matter noun and cognitive-process verb. The knowledge dimension is based on the noun and cognitive dimension on the verb.
The document discusses the history and development of electronics engineering and technology from vacuum tubes to modern integrated circuits and systems on a chip. Key developments include the invention of the transistor in 1947, the first integrated circuit in 1958, and advancements in microprocessors, memory, and computing power that have enabled technologies like smartphones, smart homes, wireless communications, and consumer electronics. These rapid advances have revolutionized many aspects of modern life.
Electronics is the study of the behavior of electrons under external fields and deals with electron devices and their utilization. Electronics has applications in various fields including communication, industry, medicine, defense, computing, automation, power generation, and entertainment. Some key applications of electronics discussed in the document are embedded systems, optical communications, radio communications, mobile communications, satellite communications, RFID, medical devices, instrumentation, telemetry, and military technologies like radar.
This document discusses general-purpose processors. It begins by introducing general-purpose processors and their basic architecture, which consists of a control unit and datapath that is designed to perform a variety of computation tasks. It then describes the operations of loading, storing, and arithmetic/logical operations that can be performed by the datapath. Subsequent sections provide more details on the control unit and how it sequences operations, instruction cycles, architectural considerations like bit-width and clock frequency, and techniques for improving performance like pipelining and superscalar execution. The document concludes with sections on assembly-level instructions and programmer considerations.
The document provides an overview of custom single-purpose processor design. It discusses converting algorithms to state machines with datapaths (FSMDs) and describes the process of splitting an FSMD model into separate controller and datapath components. Key steps include creating registers for variables, functional units for operations, and using multiplexors to control data flow. The document includes an example of designing a greatest common divisor processor from a high-level algorithm down to a detailed controller state table and datapath configuration.
This document provides an overview of embedded system design. It defines embedded systems and compares them to general computing systems. Embedded systems are application specific combinations of hardware and software designed to perform dedicated functions. The document classifies embedded systems based on generation, complexity, determinism, and triggering. It describes common embedded system components like processors, memory, sensors, actuators and communication interfaces. It outlines the purpose of embedded systems in data collection, communication, processing, monitoring, control and interfaces. Finally, it discusses memory types and processor technologies used in embedded systems.
Electric vehicle and photovoltaic advanced roles in enhancing the financial p...IJECEIAES
Climate change's impact on the planet forced the United Nations and governments to promote green energies and electric transportation. The deployments of photovoltaic (PV) and electric vehicle (EV) systems gained stronger momentum due to their numerous advantages over fossil fuel types. The advantages go beyond sustainability to reach financial support and stability. The work in this paper introduces the hybrid system between PV and EV to support industrial and commercial plants. This paper covers the theoretical framework of the proposed hybrid system including the required equation to complete the cost analysis when PV and EV are present. In addition, the proposed design diagram which sets the priorities and requirements of the system is presented. The proposed approach allows setup to advance their power stability, especially during power outages. The presented information supports researchers and plant owners to complete the necessary analysis while promoting the deployment of clean energy. The result of a case study that represents a dairy milk farmer supports the theoretical works and highlights its advanced benefits to existing plants. The short return on investment of the proposed approach supports the paper's novelty approach for the sustainable electrical system. In addition, the proposed system allows for an isolated power setup without the need for a transmission line which enhances the safety of the electrical network
Presentation of IEEE Slovenia CIS (Computational Intelligence Society) Chapte...University of Maribor
Slides from talk presenting:
Aleš Zamuda: Presentation of IEEE Slovenia CIS (Computational Intelligence Society) Chapter and Networking.
Presentation at IcETRAN 2024 session:
"Inter-Society Networking Panel GRSS/MTT-S/CIS
Panel Session: Promoting Connection and Cooperation"
IEEE Slovenia GRSS
IEEE Serbia and Montenegro MTT-S
IEEE Slovenia CIS
11TH INTERNATIONAL CONFERENCE ON ELECTRICAL, ELECTRONIC AND COMPUTING ENGINEERING
3-6 June 2024, Niš, Serbia
Advanced control scheme of doubly fed induction generator for wind turbine us...IJECEIAES
This paper describes a speed control device for generating electrical energy on an electricity network based on the doubly fed induction generator (DFIG) used for wind power conversion systems. At first, a double-fed induction generator model was constructed. A control law is formulated to govern the flow of energy between the stator of a DFIG and the energy network using three types of controllers: proportional integral (PI), sliding mode controller (SMC) and second order sliding mode controller (SOSMC). Their different results in terms of power reference tracking, reaction to unexpected speed fluctuations, sensitivity to perturbations, and resilience against machine parameter alterations are compared. MATLAB/Simulink was used to conduct the simulations for the preceding study. Multiple simulations have shown very satisfying results, and the investigations demonstrate the efficacy and power-enhancing capabilities of the suggested control system.
We have compiled the most important slides from each speaker's presentation. This year’s compilation, available for free, captures the key insights and contributions shared during the DfMAy 2024 conference.
Low power architecture of logic gates using adiabatic techniquesnooriasukmaningtyas
The growing significance of portable systems to limit power consumption in ultra-large-scale-integration chips of very high density, has recently led to rapid and inventive progresses in low-power design. The most effective technique is adiabatic logic circuit design in energy-efficient hardware. This paper presents two adiabatic approaches for the design of low power circuits, modified positive feedback adiabatic logic (modified PFAL) and the other is direct current diode based positive feedback adiabatic logic (DC-DB PFAL). Logic gates are the preliminary components in any digital circuit design. By improving the performance of basic gates, one can improvise the whole system performance. In this paper proposed circuit design of the low power architecture of OR/NOR, AND/NAND, and XOR/XNOR gates are presented using the said approaches and their results are analyzed for powerdissipation, delay, power-delay-product and rise time and compared with the other adiabatic techniques along with the conventional complementary metal oxide semiconductor (CMOS) designs reported in the literature. It has been found that the designs with DC-DB PFAL technique outperform with the percentage improvement of 65% for NOR gate and 7% for NAND gate and 34% for XNOR gate over the modified PFAL techniques at 10 MHz respectively.
KuberTENes Birthday Bash Guadalajara - K8sGPT first impressionsVictor Morales
K8sGPT is a tool that analyzes and diagnoses Kubernetes clusters. This presentation was used to share the requirements and dependencies to deploy K8sGPT in a local environment.
KuberTENes Birthday Bash Guadalajara - K8sGPT first impressions
blooms taxonomy
1. What is it???
Bloom’s Taxonomy is a chart of ideas
Named after
the creator,
Benjamin
Bloom
A Taxonomy is an
arrangement of
ideas
or a way to
group things
together
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2. Bloom's Taxonomy
Bloom's Taxonomy :: It refers to branch of
classification given by Benjamin Samuel
Bloom (February 21, 1913 – September 13, 1999),
an American educational psychologist who made
contributions to the classification of educational
objectives and to the theory of mastery learning.
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3. Who is Dr. Benjamin Bloom??
He was a teacher,
thinker, and inventor
He worked at a college
He created a list about
how we think about
thinking… you may
want to read that again!
1913-1999
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4. Bloom's Taxonomy
Bloom's Taxonomy was created in 1956 under
the leadership of Dr Bloom in order to promote
higher forms of thinking in education, such as
analyzing and evaluating concepts, processes,
procedures, and principles, rather than just
remembering facts. It is most often used when
designing educational, training, and learning
processes.
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5. Authors of Domains
The domains of learning were first developed and described
between 1956-1972. The ones discussed here are usually
attributed to their primary author, even though the actual
development may have had more authors in its formal, complete
citation.
•Benjamin Bloom (Cognitive Domain),
• David Krathwohl (Affective Domain), and
• Anita Harrow (Psychomotor Domain).
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6. Domains of learning
There are three main domains in learning and
they should be known and used in constructing
lessons. These domains are
•COGNITIVE :: mental skills, knowledge, thinking ,
Six categories
•AFFECTIVE :: growth in feelings or emotional areas,
attitude or self , Five categories
•PSYCHOMOTOR:: manual or physical skills.
Seven categories
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14. Remembering
The learner is able to recall, restate and remember learned
information.
◦ Recognising
◦ Listing
◦ Describing
◦ Identifying
◦ Retrieving
◦ Naming
◦ Locating
◦ Finding
Can you recall information?
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15. Remembering cont’
List
Memorize
Relate
Show
Locate
Distinguish
Give example
Reproduce
Quote
Repeat
Label
Recall
Know
Group
Read
Write
Outline
• Listen
• Group
• Choose
• Recite
• Review
• Quote
• Record
• Match
• Select
• Underline
• Cite
• Sort
Recall or
recognition of
specific
information
Products include:
• Quiz
• Definition
• Fact
• Worksheet
• Test
• Label
• List
• Workbook
• Reproduction
•Vocabulary
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17. Remembering
Potential Activities and Products
Make a story map showing the main events of the
story.
Make a time line of your typical day.
Make a concept map of the topic.
Write a list of keywords you know about….
What characters were in the story?
Make a chart showing…
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18. Understanding
The learner grasps the meaning of information by interpreting
and translating what has been learned.
Interpreting
Exemplifying
Summarising
Inferring
Paraphrasing
Classifying
Comparing
Explaining
Can you explain ideas or concepts?
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19. Understanding cont’
Restate
Identify
Discuss
Retell
Research
Annotate
Translate
Give examples of
Paraphrase
Reorganise
Associate
• Describe
• Report
• Recognise
• Review
• Observe
• Outline
• Account for
• Interpret
• Give main idea
• Estimate
• Define
Understanding
of given
information
Products include:
• Recitation
• Summary
• Collection
• Explanation
• Show and tell
• Example
• Quiz
• List
• Label
• Outline
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21. Understanding
Potential Activities and Products
Write in your own words about design steps of VLSI.
Cut out, or draw pictures to illustrate a particular event in the layout design.
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.
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22. Applying
The learner makes use of information in a context
different from the one in which it was learned.
◦ Implementing
◦ Carrying out
◦ Using
◦ Executing
Can you use the information in another
familiar situation?
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25. Applying
Potential Activities and Products
Construct a model to demonstrate how it looks or works
Practise a play and perform it for the class
Write a diary entry
Make a scrapbook about the area of study.
Prepare invitations for a character’s birthday party
Make a topographic map
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 up a project or model using electronic components.
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26. Analysing
The learner breaks learned information into its parts to
best understand that information.
◦ Comparing
◦ Organising
◦ Deconstructing
◦ Attributing
◦ Outlining
◦ Finding
◦ Structuring
◦ Integrating
Can you break information into parts to explore
understandings and relationships?
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27. Analysing cont’
Distinguish
Question
Appraise
Experiment
Inspect
Examine
Probe
Separate
Inquire
Arrange
Investigate
Sift
Research
Calculate
Criticize
• Compare
• Contrast
• Survey
• Detect
• Group
• Order
• Sequence
• Test
• Debate
• Analyse
• Diagram
• Relate
• Dissect
• Categorise
• Discriminate
Breaking
information down
into its component
elements
Products include:
• Graph
• Spreadsheet
• Checklist
• Chart
• Outline
• Survey
• Database
• Mobile
• Abstract
• Report
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29. Analysing
Potential Activities and Products
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 roleplay 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
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30. Evaluating
The learner makes decisions based on in-depth
reflection, criticism and assessment.
◦ Checking
◦ Hypothesising
◦ Experimenting
◦ Judging
◦ Testing
◦ Detecting
◦ Monitoring
Can you justify a decision or course of action?
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33. Evaluating
Potential Activities and Products
Write a letter to the editor
Prepare and conduct a debate
Prepare a list of criteria to judge…
Write a persuasive speech arguing for/against…
Make a booklet about five rules you see as important. Convince
others.
Form a panel to discuss viewpoints on….
Write a letter to. ..advising on changes needed.
Write a half-yearly report.
Prepare a case to present your view about...
Evaluate the character’s actions in the story
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34. 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?
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35. 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
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37. 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.
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38. Sample Unit : Travel
Remembering How many ways can you travel from one place to another? List and
draw all the ways you know. Describe one of the vehicles from your
list, draw a diagram and label the parts. Collect “transport” pictures
from magazines- make a poster with info.
Understanding How do you get from college to home? Explain the method of travel
and draw a map. Write a play about a form of modern transport.
Explain how you felt the first time you rode a bicycle. Make your
desk into a form of transport.
Applying Explain why some vehicles are large and others small. Write a story
about the uses of both. Read a story about “The Little Red Engine”
and make up a play about it. Survey 10 other students to see what
bikes they ride. Display on a chart or graph.
Analysing Make a jigsaw puzzle of students using bikes safely. What problems
are there with modern forms of transport and their uses- write a report.
Use a Venn Diagram to compare boats to planes, or helicopters to
bicycles.
Evaluating What changes would you recommend to road rules to prevent traffic
accidents? Debate whether we should be able to buy fuel at a cheaper
rate. Rate transport from slow to fast etc..
Creating Invent a vehicle. Draw or construct it after careful planning. What
sort of transport will there be in twenty years time? Discuss, write
about it and report to the class. Write a song about traveling in
different forms of transport.
39. Sample Unit : CMOS
Remembering
How many MOS transistors in CMOS?
What is CMOS?
Can you name the circuit shown in figure?
Find the definition of CMOS.
Describe What happened after using CMOS technology?
Fill up the Blank Question –
The CMOS is ----
Define CMOS.
Multiple Choice Question –
The number of selection lines for 4x1 multiplexer is:
2,4,1,3
Is MOS transistor acts as a switch or not. True or False?
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40. Understanding
Can you explain why CMOS technology is better than Bipolar.
Can you write in your own words about CMOS technology?
How would you explain about the functional behaviour of CMOS
Can you write a brief outline on twin well CMOS technology steps.
What was the main idea behind using CMOS technology?
Can you clarify how CMOS can be used to realize logic functions ?
Can you illustrate CMOS operation with one example?
Formulating an output voltage from CMOS circuit in VLSI.
Clarifying the functional behavior of CMOS.
Giving a specific example, a NAND gate, to illustrate the concept of
CMOS.
Given a HDL program with some functions, and given the overall
purpose of the program, summarize the purpose of each of the
functions in the program.
Summarize the behavior represented by (an HDL) State Diagram.
Applying
Do you know of another instance where CMOS can be used?
Which factors would you change if delay is considered when circuits
designed using CMOS?
From the information given, can you develop a set of logic functions using
CMOS?
Apply CMOS logic for multiplers.
Implement a Ripple carry adder using CMOS.
Draw voltage characteristics of CMOS and calculate gain of it.
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41. Analysing
Distinguish between pass transistor and transmission gate logic?
Generate 4-bit CLA using full adder?
Given L,W and sheet resistance values of MOSFET determine
resistance of the given layers.
Calculate gm, gds for the given values of ----
Evaluating Is there a better solution to minimize performance parameters?
Given the following Reliability Requirement and the Failure data for a
product, judge if the product is of sufficient reliability.
Check the functionality of 8x1 mux using 4x1 mux.
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Creating
Can you design a gate level to circuit level?
Can you see a possible solution to minimize power at both logic and
circuit level?
What would happen if output is degraded using pass transistor logic?
How many ways can you minimize the power?
Can you create new and unusual uses for minimizing power at circuit
level?
Can you develop a proposal which would gives optimized power?
42. Lower and Higher Order Questions
Lower level questions are those at the
remembering, understanding and lower level
application levels of the taxonomy.
Usually questions at the lower levels are
appropriate for:
Evaluating students’ preparation and
comprehension
Diagnosing students’ strengths and weaknesses
Reviewing and/or summarising content
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43. Lower and Higher Order Questions
Higher level questions are those requiring complex
application, analysis, evaluation or creation skills.
Questions at higher levels of the taxonomy are
usually most appropriate for:
Encouraging students to think more deeply and
critically
Problem solving
Encouraging discussions
Stimulating students to seek information on their own
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44. A good teacher
makes you think
even when you don’t
want to.
(Fisher, 1998, Teaching Thinking)
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