This document discusses the science process skills which include observing, classifying, measuring and using numbers, making inferences, predicting, communicating, using space-time relationships, interpreting data, defining operationally, controlling variables, and making hypotheses. It provides examples and explanations of each skill. It emphasizes that teaching science is about encouraging students to ask questions, formulate hypotheses, design experiments to test hypotheses, and evaluate results. The document stresses using these skills to solve problems, make decisions, and further understanding of the environment.
1. The document discusses science process skills, which refer to the methods scientists use to study problems, including planning investigations, collecting and analyzing data, and drawing conclusions.
2. It outlines the basic science process skills of observing, classifying, measuring, making inferences, predicting, communicating, controlling variables, making hypotheses, and experimenting.
3. Each skill is then defined in more detail, explaining what it means to demonstrate that skill and how scientists apply it in their work.
This document outlines various scientific skills including science process skills and manipulative skills. It defines the basic science process skills of observing, classifying, measuring and using numbers, making inferences, predicting, and communicating. Observing involves collecting information using the five senses. Classifying is the process of grouping objects according to certain characteristics. Measuring and using numbers involves observing quantitatively using standard measuring tools. Making inferences is making early conclusions by relating observations to experiences. Predicting is forecasting events based on observations and patterns. Communicating is receiving, sharing, and spreading information and ideas.
Process skills are methods that scientists use when conducting scientific inquiries, such as observation, classification, communication, measurement, prediction, and inference. Teachers play an important role in developing students' process skills by providing opportunities to practice skills like making observations, recording data, classifying objects, communicating findings, and making and testing predictions. Mastering these basic skills lays the foundation for more advanced skills like identifying variables, formulating hypotheses, interpreting data, and drawing conclusions.
Presentation created by Central District Resource Teacher, Rampal Singh for grade 2 teachers, May 2010. Outlines how teachers can incorporate inquiry into science instruction.
This document provides guidance for teaching science processes and planning science inquiry lessons. It discusses the key science processes of observing, classifying, inferring, measuring, communicating, hypothesizing, predicting, and experimenting. It also outlines the 5E model of instruction and provides tips for writing objectives, designing learning activities, and assessing students in science.
Thank you, Sir Benjie Molina! :)) Scienceprocessskills 090820193813-phpapp02Ruin Claude Pascual
Basic process skills in science include observing, comparing, classifying, quantifying, inferring, predicting, and communicating. These skills involve logical operations of thinking in investigations. Observing is the most fundamental skill and involves using the five senses to describe objects or events. Comparing involves using observable properties to discover similarities and differences. Classifying involves grouping objects based on observable similarities and differences. Inferring explains or interprets observations. Predicting uses past data and knowledge to forecast future events or relationships. Quantifying involves using numbers, measuring, and tracking time and space. Communicating expresses ideas through writing, graphs, diagrams or other means.
Basic process skills in science include observing, comparing, classifying, quantifying, inferring, predicting, and communicating. These skills involve logical operations of thinking in investigations. Observing is the most fundamental skill and involves using the five senses to describe objects or events. Comparing involves using observable properties to discover similarities and differences. Classifying involves grouping objects based on observable similarities and differences. Inferring explains or interprets observations. Predicting uses past data and knowledge to forecast future events or relationships. Quantifying involves using numbers, measuring, and tracking time and space. Communicating expresses ideas through writing, graphs, diagrams or other means.
Here are the answers to the questions in Exercise 1.2:
1. The two main scientific skills used in biological studies are science process skills and manipulative skills.
2. Science process skills are critical, analytical and creative thinking skills used to systematically investigate phenomena. Examples include observing, classifying, measuring, and inferring.
3. Manipulative skills are psychomotor skills used to physically conduct investigations, such as handling scientific apparatus and specimens correctly and carefully.
4. The typical format for a report of an experiment includes the title, introduction, materials, methods, results presented in tables or graphs, discussion, and conclusion.
1. The document discusses science process skills, which refer to the methods scientists use to study problems, including planning investigations, collecting and analyzing data, and drawing conclusions.
2. It outlines the basic science process skills of observing, classifying, measuring, making inferences, predicting, communicating, controlling variables, making hypotheses, and experimenting.
3. Each skill is then defined in more detail, explaining what it means to demonstrate that skill and how scientists apply it in their work.
This document outlines various scientific skills including science process skills and manipulative skills. It defines the basic science process skills of observing, classifying, measuring and using numbers, making inferences, predicting, and communicating. Observing involves collecting information using the five senses. Classifying is the process of grouping objects according to certain characteristics. Measuring and using numbers involves observing quantitatively using standard measuring tools. Making inferences is making early conclusions by relating observations to experiences. Predicting is forecasting events based on observations and patterns. Communicating is receiving, sharing, and spreading information and ideas.
Process skills are methods that scientists use when conducting scientific inquiries, such as observation, classification, communication, measurement, prediction, and inference. Teachers play an important role in developing students' process skills by providing opportunities to practice skills like making observations, recording data, classifying objects, communicating findings, and making and testing predictions. Mastering these basic skills lays the foundation for more advanced skills like identifying variables, formulating hypotheses, interpreting data, and drawing conclusions.
Presentation created by Central District Resource Teacher, Rampal Singh for grade 2 teachers, May 2010. Outlines how teachers can incorporate inquiry into science instruction.
This document provides guidance for teaching science processes and planning science inquiry lessons. It discusses the key science processes of observing, classifying, inferring, measuring, communicating, hypothesizing, predicting, and experimenting. It also outlines the 5E model of instruction and provides tips for writing objectives, designing learning activities, and assessing students in science.
Thank you, Sir Benjie Molina! :)) Scienceprocessskills 090820193813-phpapp02Ruin Claude Pascual
Basic process skills in science include observing, comparing, classifying, quantifying, inferring, predicting, and communicating. These skills involve logical operations of thinking in investigations. Observing is the most fundamental skill and involves using the five senses to describe objects or events. Comparing involves using observable properties to discover similarities and differences. Classifying involves grouping objects based on observable similarities and differences. Inferring explains or interprets observations. Predicting uses past data and knowledge to forecast future events or relationships. Quantifying involves using numbers, measuring, and tracking time and space. Communicating expresses ideas through writing, graphs, diagrams or other means.
Basic process skills in science include observing, comparing, classifying, quantifying, inferring, predicting, and communicating. These skills involve logical operations of thinking in investigations. Observing is the most fundamental skill and involves using the five senses to describe objects or events. Comparing involves using observable properties to discover similarities and differences. Classifying involves grouping objects based on observable similarities and differences. Inferring explains or interprets observations. Predicting uses past data and knowledge to forecast future events or relationships. Quantifying involves using numbers, measuring, and tracking time and space. Communicating expresses ideas through writing, graphs, diagrams or other means.
Here are the answers to the questions in Exercise 1.2:
1. The two main scientific skills used in biological studies are science process skills and manipulative skills.
2. Science process skills are critical, analytical and creative thinking skills used to systematically investigate phenomena. Examples include observing, classifying, measuring, and inferring.
3. Manipulative skills are psychomotor skills used to physically conduct investigations, such as handling scientific apparatus and specimens correctly and carefully.
4. The typical format for a report of an experiment includes the title, introduction, materials, methods, results presented in tables or graphs, discussion, and conclusion.
This document discusses basic and integrated process skills used in science. The basic process skills are observing, comparing, classifying, quantifying, inferring, predicting, communicating, and manipulative skills. These allow scientists to gather and interpret data through the senses. Integrated process skills involve experimenting and include hypothesizing, controlling variables, and organizing data. Examples are provided to illustrate each basic process skill.
Science process skills involve logical thinking in investigations and can be basic or integrated. Basic skills include observing, comparing, classifying, quantifying, inferring, predicting, and communicating. Integrated skills involve experimenting, which includes hypothesizing, controlling variables, and organizing data. Basic skills are fundamental to science and allow scientists to discover relationships through comparison and classify objects based on similarities and differences.
The document discusses science process skills which are logical thinking operations used in investigations. Basic process skills include observing, comparing, classifying, quantifying, inferring, predicting, communicating, and manipulative skills. Integrated process skills involve hypothesizing, controlling variables, and classifying data as part of experimenting. Each basic skill is then defined, with qualitative and quantitative observation, classification by similarities and differences, comparison to find relationships, inference from observations, prediction using past data, quantification through measurement, communication of ideas, and use of materials and equipment as manipulative skills. Inquiry involves asking questions, designing procedures, gathering empirical data, and drawing conclusions from evidence.
1. The document discusses the basic science processes of observing, inferring, measuring, communicating, classifying, and predicting. It then provides examples of each process.
2. It describes the steps to follow when conducting an experiment: stating the problem, developing a hypothesis, preparing materials, outlining procedures, recording observations, and drawing conclusions.
3. It explains how problems are identified through observation and questioning, and how hypotheses are tentative explanations that need to be tested through experimentation.
This document discusses practical investigations in science education. It provides guidance on developing investigations, including using killer questions to engage students, the main stages of investigations, and tools for planning investigations. Suggestions are made to differentiate planning tools for different ages and abilities. The document also addresses recording observations and data, as well as creative ways for students to share their findings. Teachers are instructed to carry out a gap task by conducting a simple investigation using a provided planning tool, differentiating the tool as needed.
Working Scientifically - Investigations 2 22.01.15Barnsleytsa
The document discusses practical scientific investigations in schools. It provides tips for engaging students through "killer questions" and emphasizes using experiments to answer questions. The main stages of an investigation are outlined as hypothesis, prediction, method, observations, conclusion and evaluation. Tools are presented for planning investigations and recording data. Teachers are encouraged to have students share their findings in creative ways and differentiate investigations for different learner abilities.
The document discusses scientific skills, which are divided into science process skills and manipulative skills. It provides details about various science process skills such as observing, classifying, measuring and using numbers, making inferences, predicting, and communicating. For each skill, it explains what the skill means, why it is needed, and how it can be performed. It also gives examples of manipulative skills like using and handling science apparatus, maintaining apparatus correctly and safely, cleaning apparatus, and handling specimens carefully.
This document discusses science processes that are important to teach students. It outlines basic processes like observing, comparing, classifying and measuring that are taught to younger elementary students. More advanced processes like inferring, controlling variables, predicting, interpreting data and drawing conclusions are taught to older elementary and secondary students. Each process is defined and examples are given of how to develop students' skills in each process. The goal is to help students learn to search for knowledge, think scientifically, and follow the scientific method.
This document discusses scientific skills, which are divided into basic and integrated process skills. The basic skills are observation, comparison, classification, quantification, inference, prediction, and communication. Observation involves using the five senses to describe objects qualitatively and quantitatively. Comparison identifies similarities and differences. Classification groups objects based on observable properties. Inference explains observations, while prediction forecasts events based on past data. Quantification uses numbers and measurement. Communication expresses ideas through writing, diagrams, or other means. Integrated skills include hypothesizing, controlling variables, and organizing data, all of which are embodied in experimentation.
This document discusses scientific skills, which are divided into basic and integrated process skills. The basic skills are observation, comparison, classification, quantification, inference, prediction, and communication. Observation involves using the five senses to describe objects qualitatively and quantitatively. Comparison identifies similarities and differences. Classification groups objects based on observable properties. Inference explains observations, while prediction forecasts events based on past data. Quantification uses numbers and measurement. Communication expresses ideas through writing, diagrams, or other means. Integrated skills include hypothesizing, controlling variables, and organizing data, all of which are embodied in experimentation.
The document appears to be a template for students to design and carry out a scientific investigation using the scientific method. It includes sections for students to outline their question, hypotheses, variables, procedure, observations, results, analysis, and areas for improvement. The homework assignment asks students to use this template to plan and conduct their own fair test investigation on a given topic. It provides assessment criteria related to making predictions, using systematic approaches, processing data, and reporting findings.
The document discusses research design, which is a framework or plan used to guide data collection and analysis in a study. There are four main types of research design: sampling, observational, statistical, and operational. A good research design provides essential information with minimal costs and facilitates efficient research operations. Key aspects of research design include objectivity, reliability, validity, and generalizability of findings. Research studies can be exploratory, descriptive, or aimed at hypothesis testing. Descriptive research describes characteristics, while hypothesis testing examines causal relationships between variables through experimental methods like replication and randomization.
The document discusses scientific inquiry and outlines five attainment targets: ideas and evidence, planning, carrying out experiments, interpreting and evaluating data, and recording and presenting results. It then describes five different levels of achievement for these attainment targets, with level 1 being the lowest and level 5 being the highest. The levels differ in terms of the complexity of questions asked, experiments conducted, data collected and analyzed, and communication of results.
The document discusses the language of research, which involves searching for truth in a systematic, scientific way. It examines characteristics like using multi-syllable words and specific types of questions, as well as concepts like variables, hypotheses, data, units of analysis, and operational definitions. Operational definitions specify how a research study will measure concepts by defining them in terms of the activities and operations used to assess them.
The document provides information and guidelines for students participating in the Swansfield Elementary School Science Fair, which will have a green theme. It outlines an 8-step process for developing a science fair project: 1) selecting a topic, 2) asking a question, 3) finding information, 4) making a hypothesis, 5) planning an experiment, 6) completing the experiment and collecting data, 7) writing a conclusion, and 8) creating a display. Students are encouraged to choose green-themed topics related to areas like recycling, energy conservation, and habitat restoration. The science fair will be held on May 23rd, where students will explain their projects to families.
The document discusses assessing student learning in a STEM project. It begins by reviewing the Australian Curriculum and identifying the STEM and transversal competencies. It then examines how to map a planning document to the Australian Curriculum and assess student projects. Finally, it discusses principles of good assessment practice including being valid, educative, explicit, fair, and comprehensive.
This document discusses research methods and the scientific method. It defines research as systematic work undertaken to increase knowledge. The scientific method involves making an observation, forming a hypothesis, conducting an experiment, analyzing results, and presenting findings. The key steps of the scientific method are asking a question, conducting background research, establishing a hypothesis, testing the hypothesis with an experiment, making observations, analyzing results, and presenting conclusions. Research methods and the scientific method provide structured and objective ways to gather and evaluate information.
Lesson 1. QUANTITATIVE RESEARCH [Autosaved].pptxALVININSORIO4
This document provides an overview of quantitative research. It discusses the reasons for conducting research such as solving problems and acquiring knowledge. Research is defined as a systematic process of investigating a topic to discover facts and prove conclusions. Key characteristics of good research include accuracy, objectiveness, timeliness, relevance, clarity, and being systematic, empirical, and replicable. Research can be pure or applied, descriptive, correlational, explanatory, exploratory, or action-oriented. It also distinguishes between qualitative research using words and quantitative research using numerical data. The overall purpose of research is to increase knowledge and make positive changes.
This document provides a science fair guide for students on the phases of data collection and analysis for their science fair projects. It includes questions to help students understand different types of data, how to record and display results, and how to analyze their data to draw conclusions about whether their results support their original hypothesis. While the hypothesis does not need to always be correct, it is important students can explain the reasons for their results.
This document discusses and compares quantitative and qualitative research methods. Quantitative research uses scientifically collected and statistically analyzed numerical data from large sample sizes to investigate observable phenomena in an objective manner. It aims to generalize results to populations and allows for fast and easy data collection and analysis using tools like surveys, experiments, and statistical tests. In contrast, qualitative research collects descriptive data like words and narratives from smaller samples to explore topics in more depth through interviews and observations.
This document outlines the flexible instruction delivery plan for the Grade 10 Science subject at Saint Joseph Academy for the 2021-2022 school year. It includes 4 quarters of content covering topics like plate tectonics, electromagnetic spectrum, human biology, heredity, ecosystems, gas laws, and biomolecules. Each topic lists the learning competencies, performance standards, and proposed teaching and assessment strategies, which involve interactive discussions, simulations, essays and other flexible activities. The goal is for students to demonstrate understanding of key scientific concepts and apply them to real-world situations.
Different Ecological Concept and Principles.pptxarvieluces1
This document discusses key ecological concepts and principles, including defining ecology as the study of living organisms interacting with one another and their environment. It describes ecosystems as geographic areas containing both biotic (living) and abiotic (non-living) factors. Examples of different ecosystem types are provided, such as freshwater ecosystems like streams, lakes, and ponds. Relationships between species within ecosystems, such as mutualism, commensalism, and parasitism are also outlined. Multiple choice questions are included to test comprehension of these ecological concepts and principles.
This document discusses basic and integrated process skills used in science. The basic process skills are observing, comparing, classifying, quantifying, inferring, predicting, communicating, and manipulative skills. These allow scientists to gather and interpret data through the senses. Integrated process skills involve experimenting and include hypothesizing, controlling variables, and organizing data. Examples are provided to illustrate each basic process skill.
Science process skills involve logical thinking in investigations and can be basic or integrated. Basic skills include observing, comparing, classifying, quantifying, inferring, predicting, and communicating. Integrated skills involve experimenting, which includes hypothesizing, controlling variables, and organizing data. Basic skills are fundamental to science and allow scientists to discover relationships through comparison and classify objects based on similarities and differences.
The document discusses science process skills which are logical thinking operations used in investigations. Basic process skills include observing, comparing, classifying, quantifying, inferring, predicting, communicating, and manipulative skills. Integrated process skills involve hypothesizing, controlling variables, and classifying data as part of experimenting. Each basic skill is then defined, with qualitative and quantitative observation, classification by similarities and differences, comparison to find relationships, inference from observations, prediction using past data, quantification through measurement, communication of ideas, and use of materials and equipment as manipulative skills. Inquiry involves asking questions, designing procedures, gathering empirical data, and drawing conclusions from evidence.
1. The document discusses the basic science processes of observing, inferring, measuring, communicating, classifying, and predicting. It then provides examples of each process.
2. It describes the steps to follow when conducting an experiment: stating the problem, developing a hypothesis, preparing materials, outlining procedures, recording observations, and drawing conclusions.
3. It explains how problems are identified through observation and questioning, and how hypotheses are tentative explanations that need to be tested through experimentation.
This document discusses practical investigations in science education. It provides guidance on developing investigations, including using killer questions to engage students, the main stages of investigations, and tools for planning investigations. Suggestions are made to differentiate planning tools for different ages and abilities. The document also addresses recording observations and data, as well as creative ways for students to share their findings. Teachers are instructed to carry out a gap task by conducting a simple investigation using a provided planning tool, differentiating the tool as needed.
Working Scientifically - Investigations 2 22.01.15Barnsleytsa
The document discusses practical scientific investigations in schools. It provides tips for engaging students through "killer questions" and emphasizes using experiments to answer questions. The main stages of an investigation are outlined as hypothesis, prediction, method, observations, conclusion and evaluation. Tools are presented for planning investigations and recording data. Teachers are encouraged to have students share their findings in creative ways and differentiate investigations for different learner abilities.
The document discusses scientific skills, which are divided into science process skills and manipulative skills. It provides details about various science process skills such as observing, classifying, measuring and using numbers, making inferences, predicting, and communicating. For each skill, it explains what the skill means, why it is needed, and how it can be performed. It also gives examples of manipulative skills like using and handling science apparatus, maintaining apparatus correctly and safely, cleaning apparatus, and handling specimens carefully.
This document discusses science processes that are important to teach students. It outlines basic processes like observing, comparing, classifying and measuring that are taught to younger elementary students. More advanced processes like inferring, controlling variables, predicting, interpreting data and drawing conclusions are taught to older elementary and secondary students. Each process is defined and examples are given of how to develop students' skills in each process. The goal is to help students learn to search for knowledge, think scientifically, and follow the scientific method.
This document discusses scientific skills, which are divided into basic and integrated process skills. The basic skills are observation, comparison, classification, quantification, inference, prediction, and communication. Observation involves using the five senses to describe objects qualitatively and quantitatively. Comparison identifies similarities and differences. Classification groups objects based on observable properties. Inference explains observations, while prediction forecasts events based on past data. Quantification uses numbers and measurement. Communication expresses ideas through writing, diagrams, or other means. Integrated skills include hypothesizing, controlling variables, and organizing data, all of which are embodied in experimentation.
This document discusses scientific skills, which are divided into basic and integrated process skills. The basic skills are observation, comparison, classification, quantification, inference, prediction, and communication. Observation involves using the five senses to describe objects qualitatively and quantitatively. Comparison identifies similarities and differences. Classification groups objects based on observable properties. Inference explains observations, while prediction forecasts events based on past data. Quantification uses numbers and measurement. Communication expresses ideas through writing, diagrams, or other means. Integrated skills include hypothesizing, controlling variables, and organizing data, all of which are embodied in experimentation.
The document appears to be a template for students to design and carry out a scientific investigation using the scientific method. It includes sections for students to outline their question, hypotheses, variables, procedure, observations, results, analysis, and areas for improvement. The homework assignment asks students to use this template to plan and conduct their own fair test investigation on a given topic. It provides assessment criteria related to making predictions, using systematic approaches, processing data, and reporting findings.
The document discusses research design, which is a framework or plan used to guide data collection and analysis in a study. There are four main types of research design: sampling, observational, statistical, and operational. A good research design provides essential information with minimal costs and facilitates efficient research operations. Key aspects of research design include objectivity, reliability, validity, and generalizability of findings. Research studies can be exploratory, descriptive, or aimed at hypothesis testing. Descriptive research describes characteristics, while hypothesis testing examines causal relationships between variables through experimental methods like replication and randomization.
The document discusses scientific inquiry and outlines five attainment targets: ideas and evidence, planning, carrying out experiments, interpreting and evaluating data, and recording and presenting results. It then describes five different levels of achievement for these attainment targets, with level 1 being the lowest and level 5 being the highest. The levels differ in terms of the complexity of questions asked, experiments conducted, data collected and analyzed, and communication of results.
The document discusses the language of research, which involves searching for truth in a systematic, scientific way. It examines characteristics like using multi-syllable words and specific types of questions, as well as concepts like variables, hypotheses, data, units of analysis, and operational definitions. Operational definitions specify how a research study will measure concepts by defining them in terms of the activities and operations used to assess them.
The document provides information and guidelines for students participating in the Swansfield Elementary School Science Fair, which will have a green theme. It outlines an 8-step process for developing a science fair project: 1) selecting a topic, 2) asking a question, 3) finding information, 4) making a hypothesis, 5) planning an experiment, 6) completing the experiment and collecting data, 7) writing a conclusion, and 8) creating a display. Students are encouraged to choose green-themed topics related to areas like recycling, energy conservation, and habitat restoration. The science fair will be held on May 23rd, where students will explain their projects to families.
The document discusses assessing student learning in a STEM project. It begins by reviewing the Australian Curriculum and identifying the STEM and transversal competencies. It then examines how to map a planning document to the Australian Curriculum and assess student projects. Finally, it discusses principles of good assessment practice including being valid, educative, explicit, fair, and comprehensive.
This document discusses research methods and the scientific method. It defines research as systematic work undertaken to increase knowledge. The scientific method involves making an observation, forming a hypothesis, conducting an experiment, analyzing results, and presenting findings. The key steps of the scientific method are asking a question, conducting background research, establishing a hypothesis, testing the hypothesis with an experiment, making observations, analyzing results, and presenting conclusions. Research methods and the scientific method provide structured and objective ways to gather and evaluate information.
Lesson 1. QUANTITATIVE RESEARCH [Autosaved].pptxALVININSORIO4
This document provides an overview of quantitative research. It discusses the reasons for conducting research such as solving problems and acquiring knowledge. Research is defined as a systematic process of investigating a topic to discover facts and prove conclusions. Key characteristics of good research include accuracy, objectiveness, timeliness, relevance, clarity, and being systematic, empirical, and replicable. Research can be pure or applied, descriptive, correlational, explanatory, exploratory, or action-oriented. It also distinguishes between qualitative research using words and quantitative research using numerical data. The overall purpose of research is to increase knowledge and make positive changes.
This document provides a science fair guide for students on the phases of data collection and analysis for their science fair projects. It includes questions to help students understand different types of data, how to record and display results, and how to analyze their data to draw conclusions about whether their results support their original hypothesis. While the hypothesis does not need to always be correct, it is important students can explain the reasons for their results.
This document discusses and compares quantitative and qualitative research methods. Quantitative research uses scientifically collected and statistically analyzed numerical data from large sample sizes to investigate observable phenomena in an objective manner. It aims to generalize results to populations and allows for fast and easy data collection and analysis using tools like surveys, experiments, and statistical tests. In contrast, qualitative research collects descriptive data like words and narratives from smaller samples to explore topics in more depth through interviews and observations.
This document outlines the flexible instruction delivery plan for the Grade 10 Science subject at Saint Joseph Academy for the 2021-2022 school year. It includes 4 quarters of content covering topics like plate tectonics, electromagnetic spectrum, human biology, heredity, ecosystems, gas laws, and biomolecules. Each topic lists the learning competencies, performance standards, and proposed teaching and assessment strategies, which involve interactive discussions, simulations, essays and other flexible activities. The goal is for students to demonstrate understanding of key scientific concepts and apply them to real-world situations.
Different Ecological Concept and Principles.pptxarvieluces1
This document discusses key ecological concepts and principles, including defining ecology as the study of living organisms interacting with one another and their environment. It describes ecosystems as geographic areas containing both biotic (living) and abiotic (non-living) factors. Examples of different ecosystem types are provided, such as freshwater ecosystems like streams, lakes, and ponds. Relationships between species within ecosystems, such as mutualism, commensalism, and parasitism are also outlined. Multiple choice questions are included to test comprehension of these ecological concepts and principles.
The document outlines objectives to identify and describe the three basic rock types, establish relationships between rock types and their mode of origin and environment of formation, and understand the different geologic processes involved in rock formation. It then provides a series of questions to assess understanding of key concepts regarding the three main rock types - igneous, sedimentary, and metamorphic rocks - and the geological processes involved in their formation, such as deposition, erosion, melting, weathering, and more.
Presentation _ Unit no.1_ Lesson No. 1-2_ Grade 8.pptxarvieluces1
This document provides information about browsers and the web. It discusses different types of browsers like Firefox, Chrome, Edge, Safari and Opera. It describes the parts of a browser like the address bar, links, back/forward buttons, bookmarks and history. It also covers topics like web links, different types of websites (e.g. blogs, news, ecommerce), and common internet acronyms. The goal is for students to learn about browsers, how to navigate the web, and basic concepts related to websites and online content.
The document outlines the steps of the scientific method and provides an example of a student, John, conducting an experiment to determine how the amount of sugar affects the rising of bread. John works through defining the problem, formulating a hypothesis, designing an experiment that includes independent and dependent variables, a control group, constants, trials and collecting/analyzing the results. John's hypothesis that more sugar leads to higher bread is initially rejected but then accepted after a second experiment testing amounts between 50-100g of sugar, finding that 70g of sugar produces the largest loaf.
The document discusses the development of the periodic table. It describes how early chemists like Dobereiner, Newlands, Meyer and Mendeleev arranged elements in tables based on increasing atomic mass and similar properties, with Mendeleev and Meyer leaving gaps for undiscovered elements. The work of physicist Moseley established that atomic number, not mass, was the basis for ordering elements. This led to the periodic law, which states that properties repeat periodically with increasing atomic number. The document outlines the groups and periods of the periodic table and classifications of elements.
Executive Directors Chat Leveraging AI for Diversity, Equity, and InclusionTechSoup
Let’s explore the intersection of technology and equity in the final session of our DEI series. Discover how AI tools, like ChatGPT, can be used to support and enhance your nonprofit's DEI initiatives. Participants will gain insights into practical AI applications and get tips for leveraging technology to advance their DEI goals.
Main Java[All of the Base Concepts}.docxadhitya5119
This is part 1 of my Java Learning Journey. This Contains Custom methods, classes, constructors, packages, multithreading , try- catch block, finally block and more.
The simplified electron and muon model, Oscillating Spacetime: The Foundation...RitikBhardwaj56
Discover the Simplified Electron and Muon Model: A New Wave-Based Approach to Understanding Particles delves into a groundbreaking theory that presents electrons and muons as rotating soliton waves within oscillating spacetime. Geared towards students, researchers, and science buffs, this book breaks down complex ideas into simple explanations. It covers topics such as electron waves, temporal dynamics, and the implications of this model on particle physics. With clear illustrations and easy-to-follow explanations, readers will gain a new outlook on the universe's fundamental nature.
A review of the growth of the Israel Genealogy Research Association Database Collection for the last 12 months. Our collection is now passed the 3 million mark and still growing. See which archives have contributed the most. See the different types of records we have, and which years have had records added. You can also see what we have for the future.
How to Add Chatter in the odoo 17 ERP ModuleCeline George
In Odoo, the chatter is like a chat tool that helps you work together on records. You can leave notes and track things, making it easier to talk with your team and partners. Inside chatter, all communication history, activity, and changes will be displayed.
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.
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.
বাংলাদেশের অর্থনৈতিক সমীক্ষা ২০২৪ [Bangladesh Economic Review 2024 Bangla.pdf] কম্পিউটার , ট্যাব ও স্মার্ট ফোন ভার্সন সহ সম্পূর্ণ বাংলা ই-বুক বা pdf বই " সুচিপত্র ...বুকমার্ক মেনু 🔖 ও হাইপার লিংক মেনু 📝👆 যুক্ত ..
আমাদের সবার জন্য খুব খুব গুরুত্বপূর্ণ একটি বই ..বিসিএস, ব্যাংক, ইউনিভার্সিটি ভর্তি ও যে কোন প্রতিযোগিতা মূলক পরীক্ষার জন্য এর খুব ইম্পরট্যান্ট একটি বিষয় ...তাছাড়া বাংলাদেশের সাম্প্রতিক যে কোন ডাটা বা তথ্য এই বইতে পাবেন ...
তাই একজন নাগরিক হিসাবে এই তথ্য গুলো আপনার জানা প্রয়োজন ...।
বিসিএস ও ব্যাংক এর লিখিত পরীক্ষা ...+এছাড়া মাধ্যমিক ও উচ্চমাধ্যমিকের স্টুডেন্টদের জন্য অনেক কাজে আসবে ...
4. WHAT are the SCIENCE PROCESS SKILLS?
1. Observing
2. classifying
3. Measuring and using numbers
4. making inferences
5. predicting
6. Communicating
7. Using space-time relationship
8. interpreting data
9. Defining operationally
10. Controlling variables
11. Making hypotheses
12. experimenting
6. Basically, you encourage a person to
ask questions, formulate a hypothesis,
design and run an experiment to test the
hypothesis and evaluate (analyze) the
result
9. observing
OBSERVING
Using the 5 senses (see, hear, touch, smell, taste) to
find out about objects and events, their characteristics,
properties, differences, similarities, and changes
Qualitative – using the senses
Quantitative – using exact measurement
Observations are recorded.
Example: Describing a pencil as yellow.
21. 2. CLASSIFYING
Using observation to group or
order objects or events according
to similarities or differences in
properties
Example: Placing all rocks having
certain grain size or hardness into
one group.
22. classifying
WHY DO WE NEED TO CLASSIFY?
1.Too many items or
information.
2. Items or information are not
organized
23. classifying
HOW DO WE CLASSIFY ?
1.Identify the general
characteristics of the items.
2. Sort out items of the same
characteristics into their
respective group.
3. Identify other characteristic.
4. Repeat step 1-3 until there is
only one item in each group.
24. classifying
You are classifying when you are ...
1. Detecting similarities.
2. Grouping objects based on certain
criterion.
3. Using other criterion in grouping
objects.
4. Grouping objects in different ways.
32. 3. MEASURING AND USING NUMBERS
Comparing an unknown quantity
with a known (metric units, time,
student-generated frames of
reference) unit
Observations are quantified using
proper measuring devices and
techniques
33. measuring & using no
• Measurements are to be recorded
in an orderly and systematic
fashion with labeled units of
measure. Charts, graphs, or
tables can be generated manually
or with computer software.
34. measuring & using no
You are measuring and
using numbers
when you are……
35. measuring & using no
Able to count and compare quantity
of items in different groups.
36. measuring & using no
Able to count and compare quantity
of items in different groups.
37. measuring & using no
Able to count and compare quantity
of items in one group
Genetic diversity in maize
Count and compare the
numbers of seeds which are
black, white and red in colour
38. measuring & using no
Able to recognize the pattern from
a table of numbers.
39. measuring & using no
Using numbers to record
phenomenon
0 - STOP
1 - ROTATE
2 - ROTATE FASTER
3 - FASTEST
40. measuring & using no
Using numbers to record phenomenon
Powder fall phenomenon
in Niseko Japan
- Count the powdered snow !!!
44. measuring & using no
Recording unit correctly.
Choosing and using standard unit.
45. measuring & using no
Comparing time, distance, area and
volume with relevant units.
Determining the accuracy in
measurement
46. 4. MAKING INFERENCES
Explanation or interpretation
that follow from the observation.
• Making an "educated guess" about
an object or event based on
previously gathered data or
information.
50. inferencing
MAKING INFERENCES
When we are able to make
inferences, and interpret and
explain events around us, we
have better appreciation of
the environment around us
57. 5. PREDICTING
Stating the outcome of a future event
based on a pattern of evidence.
Example: Predicting the height
of a plant in two weeks time
based on a graph of its growth during the
previous four weeks.
61. 6. COMMUNICATING
• using words (written and spoken) or
graphic symbols to describe an action,
object or event.
Example: Describing the change in
height of a plant over time in writing,
through a graph or drawing.
62. communicating
Using the written and spoken
work, graphs, demonstrations,
drawings, diagrams, or tables to
transmit information and ideas to
others
To reflect the true nature of
science, ideas must be shared.
63. You are communicating
when you are….
• Speaking, listening or writing to
express ideas or meanings.
• Using charts, graphs and tables to
present information.
64. communicating
You are communicating
when you are….
• Recording information from
investigations.
• Posting questions clearly.
• Using references.
• Writing experiment report to enable
others to repeat the experiment.
65. communicating
• Drawing and making notes.
It is brown in colour,
tastes sweet, rectangular and cone in shape
66. • Using and explaining the meaning of
symbols.
67. 7. USING SPACE-TIME
RELATIONSHIP
• Describing changes in parameter with time
• Parameters are location, direction, shape,
size, volume, weight and mass.
• Applying numbers and their
mathematical relationships to make
decisions
Numbers are basic to science -
mathematical knowledge is applied
69. 8. INTERPRETING DATA
(INTEGRATED SKILLS)
Organizing, analyzing, and
synthesizing data using tables,
graphs, and diagrams to locate
patterns that lead to the construction
of inferences, predictions, or
hypotheses.
70. 9. DEFINING OPERATIONALLY
(INTEGRATED SKILLS)
• Creating a definition by
describing what is done and
observed
• It is in the language of the
students.
• Definitions are in context of
students' experiences - not from
the glossary, not to be
memorized.
71. DEFINING OPERATIONALLY
Stating how to measure a variable in
an experiment.
Example: Stating that bean growth will be
measured in centimeters per week.
72. DEFINING OPERATIONALLY
• It is producing a definition of a thing
or event by giving a physical
description or the results of a given
procedure.
An acid turns blue litmus paper red and tastes sour.
73. 10. CONTROLLING VARIABLES
Manipulating one factor to
investigate the outcome of an
event while other factors are held
constant (keep the same)
Young children become confused
with multiple variables.
Students need practice in
identifying variables that affect
outcomes.
74. Identify variables in an investigation
( What to keep the same, what to change
and what to observe)
Size of salt
Volume of water
Temperature of water
Rate of stir
75. 11. MAKING HYPOTHESES
• Hypothesizing is stating a
tentative generalization which
may be used to explain a
relatively large number of
events. It is subject to immediate
or eventual testing by
experiments (to determine its
validity)
76. Suggest suitable explanations in
line with the evidence at hand
Quantity of
sugar
Time taken to
dissolve
5 spoons 10 min
3 spoons 5 min
1 spoon 2 min
Time taken for the sugar to
dissolve increases as the
quantity of sugar increases.
77. Be aware that there are more
than one explanation for
events.
78. 12. Experimenting
(Designing a fair test)
• Designing experiments involves planning a
series of data-gathering operations which
will provide a basis for testing a hypothesis
or answering a question.
Example:
Automobile manufacturers test seat belt
performance in crash tests.
79. Be a scientifically literate
teacher !!
• The scientifically literate person uses
processes of science in solving
problems, making decisions, and
furthering understanding of society and
the environment.
80. Science Process Skills
• "A Head Start on Science"
emphasizes encouraging a sense
of wonder within young children
through their use of the science
processes.
81. • Do not spoon-feed them specific
information about these objects and
phenomena.
• Rather, they are encouraged to expand
their perceptions of the world by
learning how better to observe such
things :-
eg. as caterpillars changing into
butterflies, how to compare the smells
of various foods, how to classify
leaves collected on a walk, and how to
communicate what they have learned.