¿Qué comprende por metodología?

Conjunto de procedimientos racionales utilizados para alcanzar el objetivo o la gama de objetivos que rige una investigación científica

Procesos que ayudan de forma metódica a hacer algo.

¿Qué entiende por Ágil?

Que se mueve con soltura y rapidez.

Clase 4: Conceptos FSI

Semana 1: Definir los conceptos básicos de taxonomía, clasificación y biodiversidad. Identificar las características fundamentales de los seres vivos. Semana 2: Clasificar los organismos en dominios (Bacteria, Archaea, Eukarya) según el tipo de células (procariota, eucariota). Reconocer las características distintivas de cada dominio. Semana 3: Explorar la clasificación de los reinos dentro del dominio Eukarya (Animalia, Plantae, Fungi, Protista). Identificar las características principales de cada reino. Semana 4: Adentrarse en la clasificación de los filos dentro de los reinos Animalia y Plantae. Reconocer ejemplos representativos de cada filo. Semana 5: Descubrir el concepto de especie y su importancia en la clasificación taxonómica. Aplicar criterios para identificar especies en diferentes entornos. Semana 6: Analizar los niveles de organización taxonómica (reino, filo, clase, orden, familia, género, especie). Utilizar claves taxonómicas simples para clasificar organismos. Semana 7: Reconocer la importancia de la clasificación taxonómica para el estudio de la biodiversidad. Explorar la diversidad de especies en diferentes ecosistemas. Semana 8: Analizar las relaciones de parentesco entre los organismos a través de árboles filogenéticos. Construir árboles filogenéticos sencillos para representar relaciones evolutivas.

Introducción a las Ondas Temas: - Definición y clasificación de ondas: mecánicas vs electromagnéticas, longitudinales vs transversales. - Características básicas de las ondas: longitud de onda, frecuencia, amplitud, velocidad. Actividades: - Clase teórica sobre los conceptos básicos. - Ejercicios de clasificación y caracterización de diferentes tipos de ondas. - Experimentos simples para observar ondas longitudinales y transversales (por ejemplo, usando un resorte y agua). Semana 2: Propagación del Sonido Temas: - Ondas sonoras como ondas mecánicas. - Medios de propagación del sonido. - Reflexión y refracción del sonido. Actividades: - Demostraciones en clase utilizando diferentes medios (aire, agua, sólidos). - Análisis de casos prácticos de reflexión y refracción del sonido. - Ejercicios prácticos de cálculo de velocidad del sonido en distintos medios. Semana 3: Propagación de la Luz **Temas:** - Ondas luminosas como ondas electromagnéticas. - Reflexión y refracción de la luz. - Principio de Huygens. Actividades: - Clase teórica sobre la naturaleza de la luz. - Experimentos con espejos y lentes para observar la reflexión y la refracción. - Problemas y ejercicios aplicando el principio de Huygens. Semana 4: Fenómenos Ondulatorios Temas - Interferencia, difracción y polarización de la luz y el sonido. Actividades: - Experimentos demostrativos de interferencia (usando agua y luz). - Ejercicios sobre difracción y su relación con la longitud de onda. - Actividades prácticas para observar la polarización de la luz.

Semana 1: Introducción a las Ondas Temas: - Definición y clasificación de ondas: mecánicas vs electromagnéticas, longitudinales vs transversales. - Características básicas de las ondas: longitud de onda, frecuencia, amplitud, velocidad. Actividades: - Clase teórica sobre los conceptos básicos. - Ejercicios de clasificación y caracterización de diferentes tipos de ondas. - Experimentos simples para observar ondas longitudinales y transversales (por ejemplo, usando un resorte y agua). Semana 2: Propagación del Sonido Temas: - Ondas sonoras como ondas mecánicas. - Medios de propagación del sonido. - Reflexión y refracción del sonido. Actividades: - Demostraciones en clase utilizando diferentes medios (aire, agua, sólidos). - Análisis de casos prácticos de reflexión y refracción del sonido. - Ejercicios prácticos de cálculo de velocidad del sonido en distintos medios. Semana 3: Propagación de la Luz **Temas:** - Ondas luminosas como ondas electromagnéticas. - Reflexión y refracción de la luz. - Principio de Huygens. Actividades: - Clase teórica sobre la naturaleza de la luz. - Experimentos con espejos y lentes para observar la reflexión y la refracción. - Problemas y ejercicios aplicando el principio de Huygens. Semana 4: Fenómenos Ondulatorios Temas - Interferencia, difracción y polarización de la luz y el sonido. Actividades: - Experimentos demostrativos de interferencia (usando agua y luz). - Ejercicios sobre difracción y su relación con la longitud de onda. - Actividades prácticas para observar la polarización de la luz. Semana 5: Cualidades del Sonido y la Luz Temas: - Tono, intensidad y audibilidad del sonido. - Color y visibilidad de la luz. Actividades: - Clase teórica sobre las cualidades del sonido y la luz. - Experimentos con fuentes de sonido y luz para observar diferentes tonos, intensidades y colores. - Ejercicios de cálculo de frecuencias y longitudes de onda para diferentes sonidos y colores. Semana 6: Interacción de Cargas Eléctricas Temas: - Tipos de cargas eléctricas. - Fuerzas eléctricas y magnéticas: atracción y repulsión. Actividades: - Demostraciones prácticas sobre la electrización por fricción y contacto. - Experimentos con imanes y electroscopios. - Resolución de problemas sobre fuerzas eléctricas y magnéticas. Semana 7: Electroimanes y Circuitos Eléctricos Temas: - Construcción y funcionamiento de un electroimán. - Corriente y voltaje en circuitos resistivos sencillos en serie, paralelo y mixtos. Actividades: - Construcción de electroimanes en el laboratorio. - Medición de corrientes y voltajes en diferentes configuraciones de circuitos. - Ejercicios prácticos con circuitos en serie y paralelo.

1.3.2 Multilingüismo individual: ¿somos todos multilingües? ¿Qué quiere decir ser bilingüe o ser multilingüe? Podríamos definir el bilingüismo o multilingüismo individual como la capacidad de una persona de hablar dos o más lenguas. Pero esta definición tiene varias carencias. Tradicionalmente, se pensaba que solo las personas que alcanzaban un dominio similar al de un nativo en cada una de las lenguas que hablaban podían considerarse «bilingües de verdad» o «multilingües de verdad». Pero, ¿qué ocurre con las personas que aprenden una lengua extranjera sin dominarla igual que su lengua materna? ¿Y las personas que son capaces de entender una lengua, tal vez la que se habla en su casa, pero no de hablarla con fluidez? ¿Y qué pasa con las personas que pueden hablar un idioma bastante bien, pero no saben escribir en ese idioma? ¿Y los que pueden leer y entender un texto en una lengua extranjera, pero no pueden comunicarse activamente en ella? Hoy sabemos que, aunque el dominio de dos (o más) lenguas como el de un nativo se pueda dar, en realidad es algo muy poco frecuente, ya que la inmensa mayoría de personas bilingües y multilingües no tienen el mismo grado de competencia en todas sus lenguas. De hecho, es muy común tener una lengua dominante o de preferencia, una lengua en la que una persona se desenvuelve con mayor fluidez o que prefiere en determinados ámbitos o situaciones. Imagínate a un niño que vive en el Reino Unido y habla ruso en casa con su familia e inglés en la escuela. Evidentemente, podrá hablar con más fluidez sobre algunos temas en ruso y sobre otros en inglés. ¿Significa eso que no es bilingüe? En absoluto, lo veremos enseguida. También es muy común, sobre todo entre las personas que han aprendido una segunda (o tercera) lengua más tarde, que una de las dos lenguas interfiera con la otra, algo que puede reflejarse en su acento, en ciertas estructuras gramaticales, en el vocabulario, etc. Imaginemos a un profesor universitario francés que lleva veinte años viviendo y trabajando en Inglaterra. Puede comunicarse con soltura en inglés tanto en situaciones formales como informales y ha publicado libros tanto en inglés como en francés. Sin embargo, sigue hablando en inglés con acento francés y, después de tantos años en Inglaterra, a veces le cuesta encontrar las palabras adecuadas cuando habla en francés. ¿Y qué pasa con esta persona? ¿La considerarías bilingüe? Continuo bilingüe. Las mayúsculas y el tamaño de letra más grande indican un mayor dominio de la lengua A o B. (A partir de Valdés 2014). Monolingüe lengua A Monolingüe lengua B A Ab Ab Ab Ab aB Ba Ba Ba Ba Ba B debe ser bonito ser bilingue 22 INCLUSIÓN, DIVERSIDAD Y COMUNICACIÓN ENTRE CULTURAS En la actualidad, muchos lingüistas consideran que el bilingüismo (o el multilingüismo) no es un estado que pueda alcanzarse con el tiempo, sino más bien un continuo, es decir, una progresión gradual entre dos extremos opuestos. En un extremo está el monolingüismo en la lengua A, y en el otro el monolingüismo en la lengua B. Cualquier individuo con competencias lingüísticas en ambas lenguas podría situarse entre esos dos polos. Dependiendo de su competencia y fluidez en cada lengua, se situaría más cerca de un extremo u otro del continuo. Por ejemplo, una persona con un gran dominio de una de las lenguas, pero con un dominio limitado de la otra, podría situarse en el polo Ab, mientras que una persona con un dominio de ambas lenguas similar al de un nativo se situaría en el medio, en el polo aB. La idea de un continuo bilingüe nos permite ver el bilingüismo como un proceso y tiene en cuenta el hecho de que el dominio de cualquiera de las dos lenguas puede cambiar con el tiempo. Es posible ganar competencias en una lengua, pero también perderlas. Según esta concepción más amplia del bilingüismo, incluso los estudiantes que se inician en una lengua extranjera podrían considerarse bilingües, aunque, por supuesto, al principio estarían bastante cerca de uno de los extremos monolingües del continuo. En cualquier caso, las personas bilingües y plurilingües se encuentran a menudo con tópicos o conceptos erróneos sobre lo que supone hablar y «vivir» en dos o más idiomas. Uno de los prejuicios más problemáticos es que la exposición a varias lenguas es perjudicial para el desarrollo del lenguaje en los menores. Antes se creía que los menores criados de forma bilingüe o multilingüe nunca lograrían aprender bien ninguna de las lenguas en cuestión. Por ello, docentes y pediatras desaconsejaban a los padres criar a sus hijos de forma bilingüe o multilingüe, y a menudo se les animaba a hablar con ellos en la lengua mayoritaria de su sociedad, aunque ellos mismos no dominaran esa lengua. Presionar a los familiares para que no hablen en su lengua materna con sus hijos plantea una serie SABÍAS QUE… el Día Internacional de la Lengua Materna se celebra el 21 de febrero? Fue declarado por la UNESCO en 1999 para sensibilizar sobre la diversidad lingüística y cultural y promover el multilingüismo. de problemas. Por ejemplo, los padres que hablan la lengua mayoritaria de su nueva sociedad como una lengua extranjera podrían transmitir a sus hijos patrones de pronunciación y gramática incorrectos. También se ha observado que los padres que se obligan a hablar a sus hijos en una lengua extranjera en la que no se sienten cómodos pueden comunicarse menos con ellos y ser incapaces de expresar sentimientos como la cercanía y el afecto de la forma en que lo harían en su lengua materna. Además, al no transmitir una lengua de herencia, los padres rompen el vínculo de sus hijos con los familiares que viven en el extranjero, puesto que los niños no podrán comunicarse con ellos por su cuenta. Por último, este enfoque dificulta la transmisión de las tradiciones y los valores culturales. Estas cuestiones suelen provocar problemas en la dinámica familiar que pueden ser difíciles de resolver más adelante. ¿De dónde viene la idea de la «confusión lingüística»? Uno de los principales motivos que llevan a pensar que la exposición a más de una lengua confunde a los niños es la observación de que los niños y niñas pequeños suelen combinar palabras de las distintas lenguas que hablan en una misma frase. Este fenómeno se denomina alternancia de código y es una etapa típica del desarrollo del lenguaje en los niños pequeños que se crían de forma bilingüe o multilingüe. 21/2 LENGUAS EN LA VIDA COTIDIANA 23 Sin embargo, la alternancia de código puede observarse en bilingües de cualquier edad cuando hablan con otros bilingües. Esto no significa que se confundan o sean incapaces de comunicarse correctamente en una sola lengua; es algo normal en el comportamiento lingüístico bilingüe. Llegados a este punto, es importante introducir el concepto «repertorio lingüístico». Un repertorio lingüístico incluye los recursos comunicativos de los que dispone un individuo o una comunidad de habla, es decir, las variedades lingüísticas escritas y habladas puede utilizar o que están presentes en una comunidad de hablantes. El repertorio lingüístico de las comunidades de hablantes monolingües suele estar formado por diferentes registros, estilos, dialectos, acentos, jergas y modismos. En las comunidades de habla bilingüe o multilingüe (por ejemplo, en entornos de migración o en países lingüísticamente diversos, como la India), el repertorio lingüístico no incluye solo diferentes variedades regionales, sociales y/o estilísticas en cada lengua por separado, sino también combinaciones de las diferentes lenguas habladas. Los bilingües pueden optar por cambiar y mezclar códigos en determinadas situaciones comunicativas, al igual que un hablante monolingüe puede utilizar un registro u otro en función del contexto y de con quién esté hablando. Sobre esta base, se podría incluso decir que, en sentido muy amplio, todos somos multilingües, ya que todos, monolingües y bilingües, debemos aprender a hacer malabarismos con las distintas variedades lingüísticas de nuestras sociedades. Anima a tus alumnos a realizar la actividad C para reflexionar sobre la importancia que tienen para ellos las diferentes lenguas, dialectos, acentos y ¿QUÉ PUEDO TRANSMITIR A MI ALUMNADO? · El bilingüismo o el multilingüismo no es un estado que pueda lograrse en un momento dado, sino un proceso en el que la competencia lingüística puede cambiar con el tiempo. · La mayoría de las personas bilingües y multilingües no tienen el mismo dominio de sus diferentes lenguas, y eso es algo completamente normal. · Según una concepción más amplia del bilingüismo y el multilingüismo, incluso los principiantes que aprenden una lengua extranjera podrían considerarse bilingües. · No hay que desalentar a los padres a hablar en su lengua materna con sus hijos e hijas, ya que es a través de ella como mejor pueden comunicarse, expresar sentimientos como la cercanía y el afecto, y transmitir su cultura y sus valores a la siguiente generación. En contextos de migración, los menores que dominan su lengua materna pueden mantener el contacto con los familiares que viven en el extranjero. · Las personas monolingües disponen de diferentes registros, estilos, dialectos, acentos, jergas y modismos. Las personas bilingües también pueden hacer uso de todos ellos, pero además es posible que mezclen y cambien de idioma cuando hablan con otros bilingües. Hacerlo es una parte natural y normal del comportamiento lingüístico de los bilingües y no significa que se confundan o sean incapaces de comunicarse correctamente en una sola lengua. 24 INCLUSIÓN, DIVERSIDAD Y COMUNICACIÓN ENTRE CULTURAS registros. Les resultará divertido comparar los resultados entre amigos y compañeros de clase. En la actividad D, los alumnos tendrán la oportunidad de hablar sobre la alternancia de código, de descubrir el significado de un texto escrito en muchas lenguas diferentes e incluso de crear su propio texto multilingüe. 1.4 CONCLUSIONES En este capítulo hemos presentado diferentes aspectos relacionados con las lenguas en el mundo y en nuestra vida cotidiana. Hemos explicado que las lenguas no son objetos estáticos, sino organismos vivos que interactúan y se relacionan entre sí y están en constante evolución. Las lenguas no solo transmiten mensajes, sino también los valores culturales y sociales de las personas que las hablan e incluso una forma de ver o entender el mundo. A pesar de lo que nos puedan hacer creer, el multilingüismo no es la excepción en el mundo, sino la norma. Por tanto, nuestra diversidad lingüística puede considerarse una forma más de biodiversidad, que también hay que proteger. En el capítulo 2 nos centraremos en los aspectos culturales de nuestras sociedades multiculturales y multilingües.

Electrostatics The section of CBSE Class 12 Physics electrostatic potential and capacitance notes mainly deals with the in-depth analysis of electromagnetic phenomena when they are not performing any movements. Additionally, it is divided into ten further sub-topics to study the companion processes of reaching the state. These are - 1. Electric charge In this section of Physics ch 2 Class 12 notes, you get to learn about the basic features of electric charge and its expression in Physics. Along with its basics, the sections help to understand the full potential of charge. Different aspects of Charge included in Class 12 Physics Chapter 2 notes are - Definition Type: Positive and Negative Charge Unit and dimensional formula Point Charge Properties of Charge Comparison of Charge and Mass Methods of Charging Electroscope 2. Coulomb's Law Force is created when charges of opposite signs attract each other, and they repulse if the signs are the same. Coulomb's law tries to define this phenomenon through a mathematical formula, explicitly mentioned in Physics Class 12 notes Chapter 2. Moreover, there is key information about the variation of the constant k and its effect on a medium. Coulomb's law's vector form and the principle of superimposition are also explained in ch 2 Physics Class 12 notes. (Image will be uploaded soon) 3. Electric Field As stated in Class 12 Physics Chapter 2 notes, every positively or negatively charged particle has their respective electric fields. It feels a force at the time of interaction which might be attraction or repulsion. As it arises from electric charge, it is crucial to know about its different parts like - Electric field intensity Relation between electric force and electric field Super imposition of electric field Point charge Continuous charge distributions Properties of Electric Field Lines Motion of Charged Particles in an Electric field Learning more about the electric field from electric potential and capacitance notes Class 12 helps a student to get a grasp of upcoming chapters. 4. Electric Potential Energy When energy helps a charge to move from an electric field, it is known as the Electric Potential Energy. This section of electrostatic chapter Class 12 notes requires a student to study the Electron volt (eV), and the potential energy that an n number of charges can hold. 5. Electric Potential This section of Class 12 Physics Chapter 2 notes focuses on in-depth learning of Electric Potential or Voltage. Basically, it defines the potential movement of energy. 6. Relation between Electric Field and Potential Apart from knowing more about the relationship between the two values, Physics Class 12 Chapter 2 notes also discuss equipotential surfaces. 7. Electric Dipole Essentially, 'Dipoles' are two opposite points of charge represented with q and –q, with their distance between each other being 2a. Electric Dipoles are crucial in your study of Physics Class 12 Chapter 2 notes to learn more about electric fields and their potential. Additionally, Class 12 Physics Chapter 2 notes focus on the influence of electric dipoles on a uniform electric field mainly through Force and Torque, Work, and Potential Energy. In the last part of Electrostatics, further focus is on using the formulas to their fullest potential. It includes subsections of Electric Field, Electric Potential Energy, Electric Potential, and Electric Dipole. In the notes for electrostatic potential and capacitance, you will find proper solutions accompanied by clear and crisp diagrams for better understanding. 8. Gauss's Law Apart from just discussing the Gauss's Law, in Physics Class 12 ch 2 notes there is a thorough explanation of its properties and applications. The Gauss' Law states that net electric flux passing through a hypothetical closed surface is equal to the net electric charge present within the same closed surface. Being a broad part of the whole chapter, you may need to spend a little more time on it. Moving forward, it starts discussing the properties of conductors in relation to Gauss's Law. The Class 12 Physics notes Chapter 2 perfectly defines the journey to Gauss' Law from Coulomb's Law. Here is the Gauss's Law present in the Class 12 Physics ch 2 notes, (image will be uploaded soon) 9. Capacitors There is a dedicated section about Capacitors in the Class 12 Physics Chapter 2 notes elucidating its functions and importance as storage of potential electric energy. After explaining the structure of a capacitor, it points out the different types, parallel plate, spherical and cylindrical. The section of Chapter 2 notes of Physics Class 12 is further divided into subheads like: Properties of an ideal battery Grouping of capacitors Simple circuits (Series and Parallel) Dielectric Van de Graaff generator Combination of drops Charge distribution method Wheatstone Bridge-based circuit Extended Wheatstone Bridge Infinite network of capacitors Redistribution of charge between two capacitors Vedantu prepares the Class 12 Physics Chapter 2 notes with help from subject matter experts. In the PDF, you get a comprehensive idea of the topic along with potential answers to the most asked questions. Furthermore, the detailed explanation on each section and subsections are written in a simple language allows a student to ace their exams with wholesome knowledge. These Physics Chapter 2 Class 12 notes are going to be one of the best supplementary study materials besides a student’s textbooks. Visit the Vedantu website or download the app to get your hands on all important notes! Important Questions A charge of 4 × 10–8C is uniformly distributed on the surface of a spherical conductor, having a radius of 15 cm. Determine the electric field just outside this sphere at a point that is 15 cm from the centre of this sphere. Determine the capacitance given that the distance between the two plates has been reduced by half and the parallel plate capacitor holds a capacitance of 20 pF (where 1pF = 10-12 F) having air between the two plates. What will be the total capacitance of a combination where three capacitors, each having a capacitance of 20 pF, are connected in series. A square having a side of 10 cm has a 500 µC charge at its centre. Determine the work done to move a charge of 10 µC between two points that are diagonally opposite each other on the square. At an equatorial point, what will be the electrostatic potential because of an electric dipole? Calculate the work done to move a test charge, q, through a length of 1 cm along the equatorial axis of an electric dipole? Polarisation A capacitor has its plates enclosed in a medium that can be filled by insulating substances. A net dipole moment is then induced by an electric field in the dielectric. This event causes the field in an opposite direction. Equipotential Surface An equipotential surface is a type of surface where the potential always has a constant value. If considered as a point charge, the concentric spheres that are centred at a particular area of this charge are basically equipotential surfaces. Advantages of Vedantu's Revision Notes: A Comprehensive Resource for Effective Learning There are several reasons why one may refer to Vedantu's revision notes for studying a subject like Electrostatic Potential and Capacitance. Here are some key points: Comprehensive Coverage: Vedantu's revision notes provide a comprehensive coverage of the entire topic, ensuring that all important concepts and subtopics are included. Concise and Organized: The notes are designed to be concise, focusing on the key points and core ideas. They are organized in a structured manner, making it easy for students to navigate and revise the content. Simplified Explanation: The revision notes offer simplified explanations of complex concepts, making them more accessible and easier to understand. This helps students grasp the material more effectively. Key Formulas and Equations: The notes highlight the key formulas and equations relevant to the topic, ensuring that students have a clear understanding of the mathematical aspects of Electrostatic Potential and Capacitance. Examples and Illustrations: Vedantu's revision notes often include examples and illustrations that help clarify concepts and provide practical applications, enabling students to better relate theory to real-world scenarios. Quick Recap: The revision notes serve as a quick recap of the important points, allowing students to review the material efficiently before exams or assessments. Exam-Oriented Approach: Vedantu's revision notes are designed with an exam-oriented approach, focusing on the topics and concepts that are frequently asked in examinations. This helps students prepare effectively and increase their chances of scoring well. Accessible Anytime: Vedantu's revision notes are easily accessible online, allowing students to study at their convenience and revise the material anytime, anywhere.

Act as a Microsoft Certified Azure trainer and create 25 AZ-900 scenario-based questions from basic to intermediate level. Cover domains: - Cloud Concepts - Core Azure Services - Azure Architecture & Components - Identity, Governance & Security - Azure Management & Cost Management Requirements: - Use real-world scenarios from healthcare, banking, e-commerce, startups, education, and manufacturing - Mix multiple-choice and case-based questions - Include 4 options - Mention correct answer - Provide detailed explanation - Difficulty progression: Beginner → Intermediate

Section 1: Numbers, Operations, and Relationships (15 marks) 1. Number Concepts (5 marks) 1.1. Decompose the following numbers into tens and ones: (2 marks) a. 34 b. 67 1.2. Count the objects in the pictures below and write the total number: (3 marks) [This section would need images of objects. You can provide images of groups of objects, e.g., 3 groups of 4 apples each and ask the students to count the total number.] 2. Solve Problems (5 marks) 2.1. Solve the following word problem using drawings: (3 marks) Samantha has 5 baskets. Each basket has 8 apples. How many apples does she have in total? Samantha has 5 × 8 = 40 5×8=40 apples. 2.2. Solve the following word problem by building up and breaking down numbers: (2 marks) There are 4 boxes. Each box has 6 chocolates. How many chocolates are there in total? There are 4 × 6 = 24 4×6=24 chocolates in total. 3. Calculations (5 marks) 3.1. Multiply the following numbers using drawings: (3 marks) a. 5 × 4 = 20 b. 4 × 5 = 20 3.2. Use a number line to solve: (2 marks) a. 3 × 5 = 15 b. 2 × 4 = 8 Section 2: Patterns, Functions, and Algebra (10 marks) 4. Number Patterns (10 marks) 4.1. Complete the number sequences: (5 marks) a. 180, 170, 160, 150, 140, 130, 120, 110, 100, 90 b. 150, 152, 154, 156, 158, 160, 162, 164, 166, 168 4.2. Count in twos and fill in the missing numbers: (5 marks) a. 102, 104, 106, 108, 110, 112, 114, 116 Section 3: Space and Shape (Geometry) (10 marks) 5. Position (10 marks) 5.1. Follow the directions to move around the classroom: (5 marks) Draw a path showing how you would move from your desk to the teacher's table by following these steps: Move 3 steps forward. Turn left and move 2 steps. Turn right and move 4 steps. [Students would draw a path based on these directions.] 5.2. Use the language of position to describe the following: (5 marks) a. The pencil is on the book. b. The chair is beside the desk. c. The bag is under the table. d. The ruler is next to the notebook. e. The eraser is inside the pencil case.

Alright, Isti — here’s a longer and more detailed English version of the Isaac Newton text, still written at a level that’s accessible for Grade 4 students, but rich enough in information to meet PISA literacy expectations and EF A2-level vocabulary. I’ve kept sentences short, clear, and with explanations for new concepts so it’s easier for young learners to follow, while still including both famous facts and lesser-known stories. ⸻ Isaac Newton: The Man Who Changed the Way We See the World A Boy from a Small Village Isaac Newton was born on January 4, 1643, in Woolsthorpe, a small village in England. His life was not easy. His father died before he was born. When he was just a few months old, his mother remarried and left him to live with his grandmother. Isaac missed his parents, but he kept himself busy by making things and exploring the world around him. As a child, Isaac liked to build models and machines. He made a small windmill that could turn with the wind. He built a water clock that told the time by dripping water into a container. He even made a sundial — a clock that tells the time by using the shadow of the sun. 💡 Did you know? The sundial marks that Isaac carved as a boy can still be seen today on the wall of his old house. ⸻ School and Curiosity When Newton first went to school, he was not the top student. At first, he did not pay much attention in class. But one day, another boy teased him for not being smart. Newton decided to study hard to prove him wrong. Soon, he became the best in his class. Isaac loved asking questions. He wanted to know how and why things happened. He enjoyed watching the stars at night and thinking about how the world worked. ⸻ The Falling Apple and Gravity One of the most famous stories about Newton is the falling apple. One afternoon, Isaac sat in his mother’s garden and saw an apple drop from a tree. This made him think: “Why does the apple fall straight down? Why doesn’t it fly up into the sky?” From this question, Newton began to think about gravity — an invisible force that pulls objects toward each other. Gravity is what keeps our feet on the ground. It’s also what keeps the Moon moving around the Earth and the planets moving around the Sun. 💡 Fun fact: The apple did not hit Newton’s head. That’s just a story people made up later to make the tale more exciting. ⸻ Newton’s Three Laws of Motion Newton studied movement and wrote three important rules: 1. Objects stay still or keep moving unless something makes them change. • Example: A ball will not roll unless you push it. 2. The bigger the push, the bigger the movement. • Example: If you kick a ball harder, it will go faster and farther. 3. Every action has an equal and opposite reaction. • Example: When you jump off a boat, the boat moves backward as you move forward. These three laws are still used today to understand how cars, rockets, and even roller coasters work. ⸻ Discoveries in Light and Color Newton also studied light. He found that white light is not just one color — it is made of many colors. He used a glass prism to split sunlight into a rainbow. This helped scientists understand how colors work. ⸻ Inventions and New Ideas Newton made a special telescope that used mirrors instead of lenses. This type of telescope made images of planets and stars much clearer. It is still called the Newtonian telescope today. He also worked in mathematics and helped create a new type of math called calculus, which is used to study changes and movement. ⸻ Strange Experiments Newton was so curious that he sometimes tested ideas on himself. Once, he put a thin needle, called a bodkin, beside his eye to see how it would change his vision. It was very dangerous, but luckily he did not go blind. 💡 Did you know? Newton also studied alchemy — an old kind of science where people tried to turn metal into gold. He never succeeded, but it showed how wide his interests were. ⸻ Later Life and Work At the age of 27, Newton became a professor at Cambridge University. He later worked for the Royal Mint, making sure coins were made safely and stopping people from making fake money. He was very strict, and some criminals were sent to prison because of his work. Newton never married. He spent most of his life reading, writing, and doing experiments. ⸻ The End of His Life Isaac Newton died in 1727 at the age of 84. He was buried in Westminster Abbey, a famous place in London where great people of Britain are honored. His work changed the world forever. Even today, scientists, engineers, and students still use Newton’s laws and ideas. 💬 Newton once said: “If I have seen further, it is by standing on the shoulders of giants.” This means we can make new discoveries by learning from the work of others who came before us. give 10 questions to each passage with PISA literacy standard for kid 10 years, 1. Nikola Tesla: The Man Who Dreamed of Lightning Born: July 10, 1856 Died: January 7, 1943 When Nikola Tesla was a boy in Croatia, he saw a flash of lightning and asked his mother, “Can we catch the light?” That question never left him. As he grew older, Tesla became a brilliant inventor, especially fascinated by electricity. He believed in a future where energy could be sent wirelessly through the air—like music through the radio! Tesla invented the alternating current (AC) system, which became the foundation of modern electricity. At the time, Thomas Edison promoted direct current (DC), and the two men had a fierce competition. Many laughed at Tesla's bold ideas, but he never gave up. He dreamed of wireless communication, flying machines, and even free energy for everyone. Though he died alone and poor, today the world honors his vision. Think About It: Why do you think people didn’t believe Tesla at first? What can we learn from Tesla’s courage to dream big? 2. Charles Darwin: The Man Who Studied the World’s Weirdest Creatures Born: February 12, 1809 Died: April 19, 1882 When young Charles Darwin got on a ship called HMS Beagle, he didn’t know he would change science forever. He sailed around the world for five years, collecting plants, animals, and fossils. On the Galápagos Islands, he noticed something curious: finches had different beaks depending on their island. Why? Darwin’s observations led him to write the theory of evolution by natural selection. It explained how animals adapt and survive. But his ideas shocked many people because they seemed to challenge religious beliefs. Despite the controversy, Darwin continued his work. His book On the Origin of Species changed how we see life on Earth. Think About It: Should scientists share their ideas even if they go against what others believe? How did traveling help Darwin make new discoveries? 3. Marie Curie: The Woman Who Glowed in the Dark Born: November 7, 1867 Died: July 4, 1934 Marie Curie was born in Poland at a time when girls were not allowed to study science. But that didn’t stop her. She moved to France, worked day and night, and discovered radioactivity, a powerful energy hidden inside atoms. She and her husband, Pierre Curie, found two new elements: polonium and radium. She became the first woman to win a Nobel Prize, and the only person to win in two different sciences: physics and chemistry. Even when Pierre died in an accident, Marie continued their work. Her discoveries helped doctors treat cancer—but working with radioactive materials also harmed her health. She died from radiation exposure, but her legacy lives on. Think About It: What challenges did Marie Curie face as a woman in science? Why is it important to balance discovery with safety? 4. Galileo Galilei: The Star Watcher Who Defied the Church Born: February 15, 1564 Died: January 8, 1642 Galileo loved looking at the stars. He built one of the first powerful telescopes and made stunning discoveries: mountains on the Moon, moons around Jupiter, and that the Earth orbits the Sun—not the other way around. This idea, called heliocentrism, went against the teachings of the Church. He was put on trial and forced to say he was wrong. But he wasn’t. He spent his last years under house arrest, quietly writing. Today, Galileo is called the father of modern science for daring to question what others blindly believed. Think About It: Why do you think Galileo was punished for telling the truth? Should science always follow evidence, even if it goes against powerful beliefs? 5. Isaac Newton: The Man Who Asked “Why?” When an Apple Fell Born: January 4, 1643 Died: March 31, 1727 One day, an apple fell from a tree, and Isaac Newton began to wonder: Why did it fall down, not sideways or up? This simple question led to his theory of gravity. Newton also invented calculus, described the laws of motion, and changed physics forever. But Newton wasn’t just a genius—he was curious, quiet, and often worked alone. He believed everything in nature followed rules, and it was our job to discover them. Thanks to him, we understand how planets move, how rockets launch, and why you fall when you trip. Think About It: How did Newton’s curiosity lead to great discoveries? Do you think working alone helped or hurt Newton? 6. Ada Lovelace: The First Computer Programmer Before Computers Existed Born: December 10, 1815 Died: November 27, 1852 Ada Lovelace was the daughter of the famous poet Lord Byron, but she didn’t love poetry—she loved numbers! At a time when girls were expected to sew, Ada studied mathematics. She met Charles Babbage, who designed an early computer called the Analytical Engine. Ada imagined the machine could do more than just math—it could create music, art, and even write! She wrote what is now considered the first computer program, long before real computers were built. Think About It: How did Ada imagine something that didn’t exist yet? Why do we call her a pioneer in technology? 7. Albert Einstein: The Man Who Brought Time and Space Together Born: March 14, 1879 Died: April 18, 1955 Albert Einstein wasn’t always a good student. In fact, his teachers thought he was slow. But Einstein thought deeply. He asked big questions like, “What if you could ride a beam of light?” His theories of relativity changed how we see space, time, and gravity. He also warned the world about the dangers of nuclear weapons, even though his ideas helped create them. Einstein believed science should help people, not harm them. With his messy hair, kind smile, and brilliant mind, he remains a symbol of genius. Think About It: Can someone be bad in school but still be brilliant? Should scientists be responsible for how their inventions are used? 8. Pythagoras: The Musician Who Loved Math Born: Around 570 BC Died: Around 495 BC Long ago in ancient Greece, Pythagoras believed the universe followed numbers. He discovered the Pythagorean Theorem, a rule about triangles that helps us build houses, design computers, and navigate space. He also believed that music had math inside it—that certain notes made perfect harmony because of mathematical ratios. Pythagoras started a secret school and taught his students to search for truth through numbers, shapes, and sound. Think About It: Why do you think Pythagoras saw math in everything? How does music relate to math? 9. Rosalind Franklin: The Woman Behind the DNA Discovery Born: July 25, 1920 Died: April 16, 1958 Rosalind Franklin loved looking closely at things. She used a special machine called X-ray crystallography to photograph molecules. One of her greatest photos, called Photo 51, showed the shape of DNA, the molecule that carries life’s instructions. But her work was taken without credit. Two men, Watson and Crick, used her photo to build their famous model of DNA and won the Nobel Prize. Rosalind died young and never knew how important her work became. Think About It: Why is it important to give credit in science? What can we learn from Rosalind’s quiet strength? 10. Carl Linnaeus: The Man Who Gave Names to Everything Born: May 23, 1707 Died: January 10, 1778 Have you ever wondered why a tiger is called Panthera tigris? That’s thanks to Carl Linnaeus, a Swedish scientist who created a way to name and organize every living thing. His system is still used today in biology. Linnaeus loved nature and spent his life collecting plants, animals, and even rocks. He believed that by organizing life, we could better understand it. Thanks to him, we now have a global “dictionary of nature.” Think About It: Why is it important to name and organize living things? How does order help us understand the world?

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