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PLASTIC PLANET
Quiz by Anggy Katherine Castro Camargo
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Is Plastic Trashing Our Planet?
Finding and Using Text Evidence Directions: Read “The Problem of Plastic” and “Can We Save Our Planet From Plastic?” Then complete the activity below.
The film begins as a journey to film the largest animal on the planet, the blue whale. But during the journey the filmmakers (journalist Craig Leeson and environmental activist Tanya Streeter) make the shocking discovery of a huge, thick layer of plastic floating in the middle of the Indian Ocean. This prompts them to travel around the world to look at other areas that have been affected. In total, they visited 20 locations around the world during the four years it took them to make the film. The documentary premiered in 2016, and is now on streaming services such as Netflix.It’s very clear that a lot of research went into the film. There are beautiful shots of the seas and marine life. These are contrasted with scenes of polluted cities and dumps full of plastic rubbish. We see how marine species are being killed by all the plastic we are dumping in the ocean. The message about our use of plastic is painfully obvious. But the film doesn’t only present the negative side. In the second half, the filmmakers look at what we can do to reverse the tide of plastic flowing around the world. They present short-term and long-term solutions. These include avoiding plastic containers and ‘single-use’ plastic products as much as possible. Reuse your plastic bags and recycle as much as you can. The filmmakers also stress the need for governments to work more on recycling programmers, and look at how technology is developing that can convert plastic into fuel We make a staggering amount of plastic. In terms of plastic bags alone, we use five hundred billion worldwide annually. Over 300 million tons of plastic are produced every year, and at least 8 million of those are dumped into the oceans. The results are disastrous, but it isn’t too late to change. Once you’ve seen A Plastic Ocean, you’ll realize the time is now and we all have a role to play.
Environmental Protection — Vocabulary Quiz (B1+) 🧠 1. What does “renewable energy” mean? a) Energy that never runs out and comes from nature 🌞 b) Energy that comes only from coal and oil c) Energy that can’t be used again d) Energy made from plastic ✅ Correct answer: a) Energy that never runs out and comes from nature 🌞 🧃 2. What are “single-use plastics”? a) Plastics that can be recycled many times b) Plastics used once and then thrown away 🚯 c) Plastics that last forever d) Plastics used only for energy production ✅ Correct answer: b) Plastics used once and then thrown away 🚯 🗑️ 3. What is “waste”? a) Things we eat b) Things we throw away because we don’t need them ♻️ c) Energy from the sun d) Clean water and air ✅ Correct answer: b) Things we throw away because we don’t need them ♻️ 🌱 4. What does “reduce” mean in the context of environmental protection? a) To use more of something b) To make or use less of something 🔽 c) To destroy nature d) To create pollution ✅ Correct answer: b) To make or use less of something 🔽 ♻️ 5. What does “recycle” mean? a) To use materials again instead of throwing them away b) To burn plastic waste c) To stop using energy d) To clean streets ✅ Correct answer: a) To use materials again instead of throwing them away 💬 6. Choose the correct sentence: a) We should recycle waste to protect the environment. ✅ b) We should throw away all plastic bottles. c) Renewable energy is bad for nature. d) We need more single-use plastics in our cities. ✅ Correct answer: a) We should recycle waste to protect the environment. 🌿 7. Fill in the blank: We can ______ pollution if we use public transport and save electricity. a) recycle b) reduce c) waste d) throw ✅ Correct answer: b) reduce 💡 8. True or False: “Solar and wind power are examples of renewable energy.” ✅ Answer: True ☀️💨 🏆 9. Which of these actions helps protect the environment the most? a) Using renewable energy b) Buying single-use plastics c) Producing more waste d) Throwing rubbish in the street ✅ Correct answer: a) Using renewable energy 🌎 10. Complete the sentence: People should ______ paper, glass, and plastic to keep the planet clean. a) waste b) reduce c) recycle d) ignore ✅ Correct answer: c) recycle
Got you now 👍 — you don’t want a code, you want ready-made quiz content you can paste into Quizalize so a teacher/class can use it. I’ll generate a proper SSS1 quiz bank (Maths, English, Basic Science) in a clean format. You can copy this into Quizalize “Create Quiz”. 📘 SSS1 QUIZ (READY FOR QUIZALIZE) 🧠 MATHS (10 QUESTIONS) What is 9 × 8? A. 72 B. 64 C. 81 D. 74 Answer: A Solve: 3x = 15 A. 3 B. 5 C. 6 D. 9 Answer: B What is 12²? A. 124 B. 144 C. 132 D. 122 Answer: B Simplify: 18 ÷ 3 A. 3 B. 5 C. 6 D. 9 Answer: C What is the square root of 49? A. 5 B. 6 C. 7 D. 8 Answer: C Find x: x + 7 = 20 A. 11 B. 12 C. 13 D. 14 Answer: C 5 × 5 × 5 = ? A. 125 B. 100 C. 150 D. 75 Answer: A What is 100 ÷ 4? A. 20 B. 25 C. 30 D. 40 Answer: B What is 15 + 17? A. 31 B. 32 C. 33 D. 34 Answer: B What is 10% of 200? A. 10 B. 20 C. 30 D. 40 Answer: B 📘 ENGLISH (10 QUESTIONS) Choose correct spelling A. Recieve B. Receive C. Receve D. Recive Answer: B Opposite of “fast” A. Quick B. Slow C. Sharp D. Rapid Answer: B Synonym of “happy” A. Sad B. Angry C. Joyful D. Tired Answer: C A noun is a name of a… A. Action B. Place/Person/Thing C. Verb D. Adverb Answer: B He ___ to school every day A. go B. going C. goes D. gone Answer: C Plural of child A. Childs B. Childes C. Children D. Childer Answer: C Antonym of “big” A. Large B. Huge C. Small D. Wide Answer: C A verb is a word that shows A. Name B. Action C. Place D. Thing Answer: B She is ___ honest girl A. a B. an C. the D. no article Answer: A Past tense of go A. Goed B. Gone C. Went D. Going Answer: C 🔬 BASIC SCIENCE (10 QUESTIONS) Plants absorb carbon dioxide during A. Respiration B. Photosynthesis C. Digestion D. Movement Answer: B Human breathing organ A. Heart B. Liver C. Lungs D. Kidney Answer: C Water boils at A. 0°C B. 50°C C. 100°C D. 150°C Answer: C Which is a metal? A. Rubber B. Copper C. Wood D. Plastic Answer: B The sun is a A. Planet B. Star C. Moon D. Comet Answer: B Force is measured in A. Joule B. Newton C. Watt D. Kelvin Answer: B Solid → Liquid is called A. Freezing B. Melting C. Evaporation D. Condensation Answer: B Earth revolves around A. Moon B. Mars C. Sun D. Jupiter Answer: C Human blood is pumped by A. Brain B. Heart C. Lungs D. Kidney Answer: B Energy from the sun is called A. Nuclear B. Solar C. Chemical D. Sound Answer: B ⚡ HOW TO USE IN QUIZALIZE Go to Quizalize Click Create Quiz Choose Manual Input Copy each question Paste with options + correct answer Set timer per question (5–10 sec for pressure mode) 🔥 IF YOU WANT NEXT LEVEL I can also: �Turn this into 100-question exam paper �Add hard WAEC/JAMB-level traps Or �simulate inter-house elimination rounds Just say: “upgrade me” 😈
Lide 1: Introduction to Bioreactor A bioreactor is a vessel used for growing microorganisms, plant or animal cells Provides controlled conditions for biological reactions Maintains optimum pH, temperature, oxygen, and nutrients Widely used in fermentation, enzyme, vaccine, and antibiotic production Ensures sterile and aseptic environment Scale ranges from laboratory to industrial production Slide 2: Basic Design Requirements of a Bioreactor Must be constructed with non-toxic, corrosion-resistant materials Should allow effective mixing and mass transfer Provision for sterilization (in situ sterilization) Must maintain uniform temperature and pH Easy sampling without contamination Should support scalability and automation Slide 3: Materials Used in Bioreactor Construction Stainless steel (SS-316) for industrial bioreactors Glass for laboratory-scale bioreactors Plastic (polycarbonate) for disposable bioreactors Materials must withstand heat and pressure Should be smooth to prevent microbial attachment Resistant to chemicals and cleaning agents Slide 4: Main Parts of a Bioreactor Vessel: holds the culture medium and microorganisms Agitator (impeller): provides mixing Sparger: supplies sterile air Baffles: prevent vortex formation Sensors: monitor pH, temperature, dissolved oxygen Ports: used for inoculation, sampling, and feeding Slide 5: Agitation System Ensures uniform mixing of nutrients and cells Improves oxygen transfer rate Common impellers: Rushton turbine, marine propeller Speed controlled by motor Prevents settling of cells Affects shear stress on cells Slide 6: Aeration System Supplies oxygen for aerobic fermentation Air introduced through sparger Types of spargers: ring, nozzle, sintered Maintains dissolved oxygen concentration Air is filtered for sterility Essential for high cell density cultures Slide 7: Temperature and pH Control Temperature controlled by heating/cooling jackets pH maintained using acid or alkali addition Sensors continuously monitor parameters Automated control systems used Ensures optimal microbial growth Prevents enzyme denaturation Slide 8: Foam Control System Foam formed due to protein and agitation Excess foam reduces oxygen transfer Mechanical foam breakers used Chemical antifoam agents added Foam sensor detects foam formation Maintains efficient fermentation Slide 9: Types of Bioreactors – Based on Mode of Operation Batch bioreactor Fed-batch bioreactor Continuous bioreactor Choice depends on product type Widely used in industrial fermentation Controls productivity and yield Slide 10: Batch Bioreactor All nutrients added at the beginning No addition or removal during process Simple and easy to operate Low risk of contamination Used for antibiotics and enzymes Limited control over nutrient depletion Slide 11: Fed-Batch Bioreactor Nutrients added during fermentation Prevents substrate inhibition High product yield Widely used in industrial fermentation Allows better control of growth rate Used in insulin and enzyme production Slide 12: Continuous Bioreactor Fresh medium continuously added Culture removed at same rate Maintains steady-state conditions High productivity Risk of contamination is high Used in wastewater treatment and SCP production Slide 13: Types of Bioreactors – Based on Design Stirred tank bioreactor Airlift bioreactor Bubble column bioreactor Packed bed bioreactor Fluidized bed bioreactor Photobioreactor Slide 14: Stirred Tank Bioreactor (STR) Most commonly used bioreactor Mechanical agitation using impellers Suitable for aerobic fermentation Excellent mixing and oxygen transfer Used for bacteria and fungi Easy scale-up Slide 15: Airlift Bioreactor Mixing achieved by air circulation No mechanical agitator Low shear stress Energy efficient Suitable for shear-sensitive cells Used in wastewater treatment Slide 16: Bubble Column Bioreactor Air bubbles provide mixing Simple design and low cost No moving parts Limited mixing efficiency Used for microbial fermentation Suitable for large-scale operations Slide 17: Packed Bed Bioreactor Contains immobilized cells or enzymes Substrate flows through packed matrix High cell density Used in continuous processes Limited oxygen transfer Used in enzyme and wastewater treatment Slide 18: Fluidized Bed Bioreactor Immobilized particles kept in suspension Better mass transfer than packed bed Reduced clogging Suitable for continuous operation Used in biotransformations Higher operational complexity Slide 19: Photobioreactor Designed for photosynthetic organisms Provides light source Used for algae and cyanobacteria Controls light, CO₂, and temperature Used in biofuel and pigment production Can be tubular or flat-plate design Slide 20: Applications of Bioreactors Production of antibiotics and vaccines Enzyme and organic acid production Single cell protein production Wastewater treatment Biofertilizer and biopesticide production Biopharmaceutical manufacturing
recycles the identified products/waste material into functional items (binding of used paper into notebook or memo pad; bottled plastic into lampshades, flowers, plants; etc.)
Inspire Manak Mathematics Project: Teacher: sarasa srinivasa kumar Student: Brundageethika, class 10 AP MODEL SCHOOL, Nandavaram, Marripadu Mandal, Nellore District *Title:* Enhanced Irrigation System for Efficient Water Use in Agriculture *Overview:* This project aims to develop an optimized irrigation system using mathematical principles to efficiently distribute water throughout a farm. By employing geometry, linear programming, and ratios, the system enables farmers to optimize water allocation, enhance crop yield, and reduce water consumption. *Issue Addressed:* Inefficient irrigation methods lead to excessive water consumption and reduced crop productivity. Conventional methods often result in inconsistent water distribution, wasting this precious resource. *Benefits:* - Guarantees efficient water usage, minimizing waste and preserving resources - Potential to reduce water consumption by up to 30% - Enhances crop productivity by ensuring each plant receives the ideal amount of water - Easy to implement and cost-effective for farmers in water-scarce areas - Promotes environmentally responsible agricultural practices - Scalable for various farm sizes and crop types *Required Tools:* 1. *Mathematical Tools:* - Graph paper or software (e.g., GeoGebra) - Calculator or software (e.g., Excel) for linear programming - Ruler and compass for manual layout design 2. *Materials for the Model:* - Cardboard or plywood board for farm layout model - Small containers (e.g., cups, bottles) for simulating water distribution - Plastic tubing or straws for irrigation channels - Clay or soil for crop fields 3. *Water Distribution System:* - Water pump or manual syringe for demonstrating water flow - Small-scale water reservoir (bowl or tank) - Valves or small taps to control water flow 4. *Visualization and Display:* - Markers, pens, and labels for marking crop sections and water flow paths - Charts or posters for showing mathematical calculations and results - Projector or laptop (optional) for digital models 5. *Miscellaneous:* - Adhesive (glue, tape) for assembling the model - Scissors or cutting tools for shaping materials - Measuring tape for accurate model scaling This project has the potential to make a significant impact on agricultural practices, and I'm excited to see how it develops!