This document provides an introduction to biomimicry, which is emulating nature's designs and processes to solve human problems. It defines key terms like biomimicry, bio-inspired design, and biomimetics. Biomimics study biological structures, processes, and systems to inform innovation. Examples given include emulating gecko feet for adhesion and leaf structures for water-repellent surfaces. Biological processes like photosynthesis and ant foraging have also inspired new technologies. The document discusses how industrial systems can mimic ecological systems by reducing waste, recycling materials, and using one system's waste as input for another.
This document provides an overview of biomimicry, which is modeling design after nature. It defines biomimicry as the design and production of materials, structures, and systems inspired by biological entities and processes. Examples given include shark skin which reduces drag for speed and prevents parasites, and termite mounds which use tunnels and chimneys for cooling. The document explains that biomimicry is important as it allows designs that function sustainably like the natural world, after 3.8 billion years of evolution. It promotes a circular economy with no waste. Future applications discussed include an artificial leaf that mimics photosynthesis for sustainable energy, and a flexible material inspired by dragonfly skeletons.
Tuesday 14.00 nicole miller b38 sustainable brands july2014Sustainable Brands
油
Biomimicry identifies solutions from nature that can be applied to create sustainable products and processes. It is estimated that biomimicry solutions could represent $300 billion in the US and $1 trillion globally by 2025. Biomimicry operates at three levels - form, process, and systems - to solve design challenges. Examples of biomimicry solutions include technologies inspired by tubercles to reduce drag, products mimicking whale fins or plant structures, and developments applying principles of nature's systems. Benefits beyond products include dissolving silos between disciplines, changing mindsets to value nature's models, and fostering employee engagement through new design approaches.
This document discusses biomimicry in building and design. It defines biomimicry as imitating designs and processes found in nature to solve human problems. The document outlines the biomimic design process and provides historical examples of biomimicry. It explains nine principles that nature follows, such as running on sunlight, fitting form to function, and recycling everything, that biomimicry aims to emulate. The presentation encourages applying biomimicry concepts to building design to achieve sustainability and efficiency inspired by natural models.
What does nature have to teach us about how to be more successful in our products, buildings, businesses and society?
With 3.8 billion years of experience, it turns out that nature can teach us plenty! In this brief seminar, well begin to explore the new field of biomimicry - what it is, what it isnt, and how to use it to become more successful in your practices. Examples will include the development of better products, improved performance in business and organizations, and how the Living Building Challenge applies the ideas to the built environment. Wear your running shoes!
Biomimicry is an approach to innovation that seeks sustainable solutions by emulating nature's patterns and strategies. Nature has solved many problems humans are facing, as organisms are highly engineered after billions of years of evolution. Biomimetic architecture specifically looks to nature for principles of sustainable design, drawing inspiration from natural forms and processes without direct replication. Examples include tree-inspired columns in ancient Greece and organic architecture that follows natural flows. The most complex example is the Palm Islands in Dubai, which were constructed in the shape of palm trees using sand dredged from the sea floor and compacted into place with precision technology.
Biomimicry is an approach to innovation that seeks sustainable solutions by emulating nature's patterns and strategies. Nature has solved many problems humans are facing, as organisms are highly engineered after billions of years of evolution. Biomimetic architecture specifically looks to nature for principles of sustainable design, drawing inspiration from natural forms and processes without direct replication. Examples include tree-inspired columns in ancient Greece and organic architecture that follows natural flows. The most complex example is the Palm Islands in Dubai, which were constructed in the shape of palm trees using sand dredged from the sea floor and compacted into precise positions, applying biomimicry at the organism level.
Biomimicry is an approach to innovation that seeks sustainable solutions to human challenges by emulating nature's patterns and strategies. It examines nature's models, systems and processes to solve human problems. Architecture has long drawn inspiration from nature, and biomimetic architecture specifically looks to organisms and ecosystems for guidance on form, function and how to fit structures into their environments without resistance. The palm islands in Dubai are an example of biomimic architecture, mimicking the shape of palm trees at the organism level through their unique landscape layout, which was constructed from dredged sand compacted into precise positions to form the elaborate palm tree shape.
Biomimicry is an approach to innovation that seeks sustainable solutions by emulating nature's patterns and strategies. It uses nature as a model, measure, and mentor. Examples of biomimicry include gecko-inspired climbing pads, bullet train aerodynamics inspired by bird beaks, and the Wright brothers' flying machine inspired by pigeons. Biomimicry has applications across many fields and aims to balance resource use for sustainable development. Advantages include setting up systems to maximize resources and eliminate waste, while disadvantages include ensuring relevance to problems and accessibility of biological information needed for implementation.
Biomimicry is an approach to innovation that seeks sustainable solutions to human challenges by emulating nature's patterns and strategies. It is based on the idea that nature has already solved many problems humans are facing. Biomimicry can be applied at the level of organisms, their behaviors, and ecosystems. Architecture has a long history of drawing inspiration from nature, from tree-inspired columns to more contemporary biomimetic designs. The Palm Islands in Dubai are an example of biomimetic architecture that imitates the shape of palm trees at the organism level. They were constructed using innovative engineering techniques like vibro-compaction of sand and GPS mapping.
Biomimicry is an approach to innovation that seeks sustainable solutions to human challenges by emulating nature's patterns and strategies. It is based on the idea that nature has already solved many problems humans are facing. Biomimicry can be applied at the level of organisms, their behaviors, and ecosystems. Architecture has a long history of drawing inspiration from nature, from tree-inspired columns to more contemporary biomimetic designs. The Palm Islands in Dubai are an example of biomimetic architecture that imitates the shape of palm trees at the organism level. They were constructed using innovative engineering techniques like vibro-compaction of sand and GPS mapping.
Biomimicry is an approach to innovation that seeks sustainable solutions to human challenges by emulating nature's patterns and strategies. It is based on the idea that nature has already solved many problems humans are facing. Biomimicry can be applied at the level of organisms, their behaviors, and ecosystems. Architecture has a long history of drawing inspiration from nature, from tree-inspired columns to more contemporary biomimetic designs. The Palm Islands in Dubai are an example of biomimetic architecture that imitates the shape of palm trees at the organism level. They were constructed using innovative engineering techniques like vibro-compaction of sand and GPS mapping.
Biomimetics involves imitating nature to address human needs. It deals with developing innovations by studying natural structures, functions, processes and systems. Nature acts as a model. Some key points of biomimetics include mimicking nature through natural or synthetic substitutes, and studying nature's solutions to problems like the lotus plant's water resistance. Biomimetics has applications in areas like energy efficient buildings, bionic vehicles, tissue engineering and more. It is a growing field with potential for developing new materials, technologies and applications.
The document discusses biomimicry in architecture. It defines biomimicry as taking inspiration from nature's models, systems, and processes to solve design problems sustainably. The document outlines two approaches to biomimicry in design: the problem-based direct approach where designers look to nature for solutions to identified problems, and the solution-based indirect approach where characteristics of organisms or ecosystems are translated to designs. It also notes limitations in fully emulating nature, as ecosystems develop over long periods while architectural designs must be implemented upfront.
This document summarizes a research article about biomimicry in architecture. The article explores how biomimicry, which involves mimicking designs from nature, can influence architecture, the environment, the economy, and society. It discusses theories of biomimicry, sustainability, and nature-inspired design. A survey was conducted with architecture and engineering professionals to evaluate how biomimicry design may impact the surrounding community and inhabitants. The research aims to examine how biomimicry can create architecture with maximum comfort and minimum environmental impact while being economically efficient.
Biomimetics is an emerging discipline that studies nature's designs and processes to solve human problems. It is being used in a variety of fields, including developing new materials inspired by nature like a sharkskin-inspired slippery surface and a bone adhesive inspired by sandcastle worms. Biomimetics is also being applied to robotics, with robots modeled after cockroaches, fish, and other animals. As our understanding of biology and nanotechnology improves, biomimetics offers a way to develop sustainable technologies and materials by imitating nature's highly efficient processes.
Biotechnology is a multidisciplinary field that utilizes living organisms to develop products and processes. It has a long history dating back to ancient times when early humans selected plants for food and developed animal farming and food preservation techniques. Modern biotechnology applies techniques such as recombinant DNA, gene cloning, monoclonal antibodies, PCR, and genetic engineering to produce genetically modified organisms for applications in agriculture, health, industry, and environmental remediation. Biotechnology draws upon disciplines including biochemistry, bioinformatics, engineering, genetics, microbiology, molecular biology, mathematics, and statistics. It has various branches including agricultural, aquatic, energy, and health biotechnology.
This document summarizes a study on applying biologically inspired concepts from nature to solve problems in the construction industry. It discusses how nature has provided models for engineers and architects through natural structures like root bridges and termite mounds that passively regulate temperature. The study explores two approaches to biomimicry - looking to biology to solve human problems, and having biology influence design. Examples given are a vapor barrier product called MemBrain inspired by leaf stomata, and the Eastgate building whose ventilation system was based on termite mounds. The document also outlines three levels of biomimicry - organism, behavior, and ecosystem levels.
BIOMIMICRY IN DEPARTMENT OF CIVIL ENGINEERING PPTMiniMyatru
油
This document summarizes a technical seminar on biomimicry in civil engineering presented by Bandekkanavara Shankaralinga. Biomimicry involves taking inspiration from nature to solve human problems sustainably. It can involve mimicking natural forms, processes, or entire ecosystems. The seminar discusses three levels of biomimicry application and provides the example of an office building in Zimbabwe that was passively cooled through mimicking termite mounds. Overall, biomimicry offers opportunities for more sustainable and efficient structural design, materials, infrastructure, and building systems by observing solutions found in nature.
Biomimicry is the practice of learning from and then emulating lifes genius ...lekshmy5
油
Biomimicry is the practice of learning from nature to solve human problems and create sustainable designs. It involves studying principles and mechanisms found in nature and transferring them to solve design challenges, with a focus on sustainability. Some examples include bullet trains inspired by kingfishers, burrs from burdock plants, camouflage from cephalopods, and ventilation systems modeled after termite mounds. Biomimicry aims to emulate life's forms and processes, establish a philosophy of understanding how life works, and reconnect humans to nature. Benefits include more sustainable and regenerative solutions that respect natural circular systems and change perspectives on the environment.
Significance of Biology in Engineeringing.pptdesisandy77
油
The document provides an overview of the course "Biology for Engineers". The objectives are to impart fundamental knowledge of biology and how it can be applied in engineering. The course introduces basic genetics concepts like Mendel's laws and mechanisms of inheritance. It discusses the importance of understanding biology for engineering problems involving areas like biomedical systems. Examples are given of how nature inspires technological solutions, such as the wind turbine blades inspired by whale fins and bullet train noses inspired by kingfishers. The course aims to explain how engineering principles can be used in biology through applications like prosthetics and computational modeling.
Biomimicry is the field of science which is inspired from nature by one or the other way. There are thousands of ideas already present in the nature with the help of which we can modify or innovate new things to solve our complexes.
This document provides an introduction to biology and classification. It discusses biology as the study of living things and outlines some key branches and characteristics of biology. The document then explains the importance of classification and outlines the historical development of classification systems. It describes the modern taxonomic units used in classification, from kingdom down to species. The five main kingdoms - Monera, Protoctista, Fungi, Plantae, and Animalia - are identified. The hierarchical relationships between taxonomic groups from kingdom to species are also summarized.
Biomimicry as a tool for sustainable products and processesMEGHANAJOSEPH
油
sustainable products and process, ideas from nature; principles, steps, approaches of biomimicry, forms, process, system, nature vs technology, organizations and institution, case studies, examples, cities the functions as forest
Electrical Quantities and Circuits | IGCSE PhysicsBlessing Ndazie
油
This extensive slide deck provides a detailed exploration of electrical quantities and circuits for IGCSE Physics. It covers key electrical quantities, including charge, current, voltage (potential difference), resistance, power, energy, electromotive force (EMF), and internal resistance. The presentation also explains series and parallel circuits, with in-depth discussions on Ohms Law, Kirchhoffs Laws, electrical components, circuit calculations, and practical applications. Packed with illustrative diagrams, worked examples, and exam-style questions, this resource is ideal for IGCSE students, teachers, and independent learners preparing for exams.
Biomimicry is an approach to innovation that seeks sustainable solutions to human challenges by emulating nature's patterns and strategies. It examines nature's models, systems and processes to solve human problems. Architecture has long drawn inspiration from nature, and biomimetic architecture specifically looks to organisms and ecosystems for guidance on form, function and how to fit structures into their environments without resistance. The palm islands in Dubai are an example of biomimic architecture, mimicking the shape of palm trees at the organism level through their unique landscape layout, which was constructed from dredged sand compacted into precise positions to form the elaborate palm tree shape.
Biomimicry is an approach to innovation that seeks sustainable solutions by emulating nature's patterns and strategies. It uses nature as a model, measure, and mentor. Examples of biomimicry include gecko-inspired climbing pads, bullet train aerodynamics inspired by bird beaks, and the Wright brothers' flying machine inspired by pigeons. Biomimicry has applications across many fields and aims to balance resource use for sustainable development. Advantages include setting up systems to maximize resources and eliminate waste, while disadvantages include ensuring relevance to problems and accessibility of biological information needed for implementation.
Biomimicry is an approach to innovation that seeks sustainable solutions to human challenges by emulating nature's patterns and strategies. It is based on the idea that nature has already solved many problems humans are facing. Biomimicry can be applied at the level of organisms, their behaviors, and ecosystems. Architecture has a long history of drawing inspiration from nature, from tree-inspired columns to more contemporary biomimetic designs. The Palm Islands in Dubai are an example of biomimetic architecture that imitates the shape of palm trees at the organism level. They were constructed using innovative engineering techniques like vibro-compaction of sand and GPS mapping.
Biomimicry is an approach to innovation that seeks sustainable solutions to human challenges by emulating nature's patterns and strategies. It is based on the idea that nature has already solved many problems humans are facing. Biomimicry can be applied at the level of organisms, their behaviors, and ecosystems. Architecture has a long history of drawing inspiration from nature, from tree-inspired columns to more contemporary biomimetic designs. The Palm Islands in Dubai are an example of biomimetic architecture that imitates the shape of palm trees at the organism level. They were constructed using innovative engineering techniques like vibro-compaction of sand and GPS mapping.
Biomimicry is an approach to innovation that seeks sustainable solutions to human challenges by emulating nature's patterns and strategies. It is based on the idea that nature has already solved many problems humans are facing. Biomimicry can be applied at the level of organisms, their behaviors, and ecosystems. Architecture has a long history of drawing inspiration from nature, from tree-inspired columns to more contemporary biomimetic designs. The Palm Islands in Dubai are an example of biomimetic architecture that imitates the shape of palm trees at the organism level. They were constructed using innovative engineering techniques like vibro-compaction of sand and GPS mapping.
Biomimetics involves imitating nature to address human needs. It deals with developing innovations by studying natural structures, functions, processes and systems. Nature acts as a model. Some key points of biomimetics include mimicking nature through natural or synthetic substitutes, and studying nature's solutions to problems like the lotus plant's water resistance. Biomimetics has applications in areas like energy efficient buildings, bionic vehicles, tissue engineering and more. It is a growing field with potential for developing new materials, technologies and applications.
The document discusses biomimicry in architecture. It defines biomimicry as taking inspiration from nature's models, systems, and processes to solve design problems sustainably. The document outlines two approaches to biomimicry in design: the problem-based direct approach where designers look to nature for solutions to identified problems, and the solution-based indirect approach where characteristics of organisms or ecosystems are translated to designs. It also notes limitations in fully emulating nature, as ecosystems develop over long periods while architectural designs must be implemented upfront.
This document summarizes a research article about biomimicry in architecture. The article explores how biomimicry, which involves mimicking designs from nature, can influence architecture, the environment, the economy, and society. It discusses theories of biomimicry, sustainability, and nature-inspired design. A survey was conducted with architecture and engineering professionals to evaluate how biomimicry design may impact the surrounding community and inhabitants. The research aims to examine how biomimicry can create architecture with maximum comfort and minimum environmental impact while being economically efficient.
Biomimetics is an emerging discipline that studies nature's designs and processes to solve human problems. It is being used in a variety of fields, including developing new materials inspired by nature like a sharkskin-inspired slippery surface and a bone adhesive inspired by sandcastle worms. Biomimetics is also being applied to robotics, with robots modeled after cockroaches, fish, and other animals. As our understanding of biology and nanotechnology improves, biomimetics offers a way to develop sustainable technologies and materials by imitating nature's highly efficient processes.
Biotechnology is a multidisciplinary field that utilizes living organisms to develop products and processes. It has a long history dating back to ancient times when early humans selected plants for food and developed animal farming and food preservation techniques. Modern biotechnology applies techniques such as recombinant DNA, gene cloning, monoclonal antibodies, PCR, and genetic engineering to produce genetically modified organisms for applications in agriculture, health, industry, and environmental remediation. Biotechnology draws upon disciplines including biochemistry, bioinformatics, engineering, genetics, microbiology, molecular biology, mathematics, and statistics. It has various branches including agricultural, aquatic, energy, and health biotechnology.
This document summarizes a study on applying biologically inspired concepts from nature to solve problems in the construction industry. It discusses how nature has provided models for engineers and architects through natural structures like root bridges and termite mounds that passively regulate temperature. The study explores two approaches to biomimicry - looking to biology to solve human problems, and having biology influence design. Examples given are a vapor barrier product called MemBrain inspired by leaf stomata, and the Eastgate building whose ventilation system was based on termite mounds. The document also outlines three levels of biomimicry - organism, behavior, and ecosystem levels.
BIOMIMICRY IN DEPARTMENT OF CIVIL ENGINEERING PPTMiniMyatru
油
This document summarizes a technical seminar on biomimicry in civil engineering presented by Bandekkanavara Shankaralinga. Biomimicry involves taking inspiration from nature to solve human problems sustainably. It can involve mimicking natural forms, processes, or entire ecosystems. The seminar discusses three levels of biomimicry application and provides the example of an office building in Zimbabwe that was passively cooled through mimicking termite mounds. Overall, biomimicry offers opportunities for more sustainable and efficient structural design, materials, infrastructure, and building systems by observing solutions found in nature.
Biomimicry is the practice of learning from and then emulating lifes genius ...lekshmy5
油
Biomimicry is the practice of learning from nature to solve human problems and create sustainable designs. It involves studying principles and mechanisms found in nature and transferring them to solve design challenges, with a focus on sustainability. Some examples include bullet trains inspired by kingfishers, burrs from burdock plants, camouflage from cephalopods, and ventilation systems modeled after termite mounds. Biomimicry aims to emulate life's forms and processes, establish a philosophy of understanding how life works, and reconnect humans to nature. Benefits include more sustainable and regenerative solutions that respect natural circular systems and change perspectives on the environment.
Significance of Biology in Engineeringing.pptdesisandy77
油
The document provides an overview of the course "Biology for Engineers". The objectives are to impart fundamental knowledge of biology and how it can be applied in engineering. The course introduces basic genetics concepts like Mendel's laws and mechanisms of inheritance. It discusses the importance of understanding biology for engineering problems involving areas like biomedical systems. Examples are given of how nature inspires technological solutions, such as the wind turbine blades inspired by whale fins and bullet train noses inspired by kingfishers. The course aims to explain how engineering principles can be used in biology through applications like prosthetics and computational modeling.
Biomimicry is the field of science which is inspired from nature by one or the other way. There are thousands of ideas already present in the nature with the help of which we can modify or innovate new things to solve our complexes.
This document provides an introduction to biology and classification. It discusses biology as the study of living things and outlines some key branches and characteristics of biology. The document then explains the importance of classification and outlines the historical development of classification systems. It describes the modern taxonomic units used in classification, from kingdom down to species. The five main kingdoms - Monera, Protoctista, Fungi, Plantae, and Animalia - are identified. The hierarchical relationships between taxonomic groups from kingdom to species are also summarized.
Biomimicry as a tool for sustainable products and processesMEGHANAJOSEPH
油
sustainable products and process, ideas from nature; principles, steps, approaches of biomimicry, forms, process, system, nature vs technology, organizations and institution, case studies, examples, cities the functions as forest
Electrical Quantities and Circuits | IGCSE PhysicsBlessing Ndazie
油
This extensive slide deck provides a detailed exploration of electrical quantities and circuits for IGCSE Physics. It covers key electrical quantities, including charge, current, voltage (potential difference), resistance, power, energy, electromotive force (EMF), and internal resistance. The presentation also explains series and parallel circuits, with in-depth discussions on Ohms Law, Kirchhoffs Laws, electrical components, circuit calculations, and practical applications. Packed with illustrative diagrams, worked examples, and exam-style questions, this resource is ideal for IGCSE students, teachers, and independent learners preparing for exams.
Beyond Point Masses. IV. Trans-Neptunian Object Altjira Is Likely a Hierarchi...S辿rgio Sacani
油
Dynamically studying trans-Neptunian object (TNO) binaries allows us to measure masses and orbits. Most of the known objects appear to have only two components, except (47171) Lempo, which is the single known hierarchical triple system with three similar-mass components. Though hundreds of TNOs have been imaged with high-resolution telescopes, no other hierarchical triples (or trinaries) have been found among solar system small bodies, even though they are predicted in planetesimal formation models such as gravitational collapse after the streaming instability. By going beyond the point-mass assumption and modeling TNO orbits as non-Keplerian, we open a new window into the shapes and spins of the components, including the possible presence of unresolved inner binaries. Here we present evidence for a new hierarchical triple, (148780) Altjira (2001 UQ18), based on non-Keplerian dynamical modeling of the two observed components. We incorporate two recent Hubble Space Telescope observations, leading to a 17 yr observational baseline. We present a new open-source Bayesian pointspread function fitting code called nPSF that provides precise relative astrometry and uncertainties for single images. Our non-Keplerian analysis measures a statistically significant (2.5) nonspherical shape for Altjira. The measured J2 is best explained as an unresolved inner binary, and an example hierarchical triple model gives the best fit to the observed astrometry. Using an updated non-Keplerian ephemeris (which is significantly different from the Keplerian predictions), we show that the predicted mutual event season for Altjira has already begun, with several excellent opportunities for observations through 2030.
Coordination and Response: The Nervous System | IGCSE BiologyBlessing Ndazie
油
This comprehensive IGCSE Biology presentation explains the nervous system, focusing on how the body coordinates and responds to stimuli. Learn about the central and peripheral nervous systems, reflex actions, neurons, synapses, and the role of neurotransmitters. Understand the differences between voluntary and involuntary responses and how the nervous system interacts with other body systems. Ideal for Cambridge IGCSE students preparing for exams!
This PowerPoint gives a brief idea about the identification of herbal drug plants with special reference to organoleptic studies. The study comprises different parameters like physical, chemical, biological, and other features associated with it. It offers an idea about the need for scientifically identifying drug plants to avoid adulteration.
Simple Phenomena of Magnetism | IGCSE PhysicsBlessing Ndazie
油
This extensive slide deck provides a detailed exploration of the simple phenomena of magnetism for IGCSE Physics. It covers key concepts such as magnetic materials, properties of magnets, magnetic field patterns, the Earth's magnetism, electromagnets, the motor effect, and the principles of electromagnetic induction. The presentation also explains magnetization and demagnetization, methods of making magnets, applications of magnets in real life, and experimental demonstrations. Featuring illustrative diagrams, worked examples, and exam-style questions, this resource is ideal for IGCSE students, teachers, and independent learners preparing for exams.
Difference between Prokaryotic cell and Eukaryotic cell.pptxDrSulabhaDeokar
油
This presentation explores the fundamental differences between prokaryotic and eukaryotic cells,distinguishing characteristics of Prokaryotes and Eukaryotes.Describe common cell morphologies and cellular arrangements in typical Prokaryotes and Eukaryotes.
Presentation explains how cells maintain their morphology.
Explore internal and external structures of Prokaryotes and Eukaryotes in terms of their physical structure, chemical structure and function.
This presentation is designed for biology students, educators, and anyone interested in cellular biology. Based on the latest research and scientific discoveries in the field of Microbiology, Microbial Biotechnology and cellular biology. This Presentation has been compiled using information from trusted educational resources and scientific literature.
The purpose of this presentation is to educate and inform the students about the fundamental differences between prokaryotic and eukaryotic cells, highlighting their unique structures, functions, and characteristics, which provide a comprehensive understanding of cellular biology.
Educate the students and teachers about the differences between prokaryotic and eukaryotic cells in detail.
This presentation will engage and entertain the students, often with a mix of detail information, colourful pictures and storytelling.
This presentation will motivate and inspire the students to think differently, take action, or pursue a goal.
Definitely it will raise awareness about a ultrastructures of Prokaryotes and Eukaryotes .
This presentation will Provide an update or report on a science projects and progress as well as inspire the graduate students to learn more about cellular biology and its applications.
This presentation will inspire studets, teachers and educational professionals to explore digital resource for e - learnig .
Presentation likely to be used by under graduate and post graduate students, educators or individuals for online learning.
It can work as digital resource for a broader e- learning ecosystem.
This presentation highlights '' NEP-aligned Biotechnology and Biology education.''
"Discover the distinctions between prokaryotic and eukaryotic cells, from cell walls to genetic material. This presentation provides a comprehensive overview of cellular biology.Learn about the two main types of cells - prokaryotic,eukaryotic and their differences in structure, function, and organization. A great resource for biology learners.Uncover the unique characteristics of prokaryotic and eukaryotic cells in this informative PPT.
Detection of ferrihydrite in Martian red dust records ancient cold and wet co...S辿rgio Sacani
油
Iron oxide-hydroxide minerals in Martian dust provide crucial insights into
Mars past climate and habitability. Previous studies attributed Mars red color
to anhydrous hematite formed through recent weathering. Here, we show that
poorly crystalline ferrihydrite (Fe5O8H 揃 nH2O) is the dominant iron oxidebearing phase in Martian dust, based on combined analyses of orbital, in-situ,
and laboratory visible near-infrared spectra. Spectroscopic analyses indicate
that a hyperfine mixture of ferrihydrite, basalt and sulfate best matches Martian dust observations. Through laboratory experiments and kinetic calculations, we demonstrate that ferrihydrite remains stable under present-day
Martian conditions, preserving its poorly crystalline structure. The persistence
of ferrihydrite suggests it formed during a cold, wet period on early Mars
under oxidative conditions, followed by a transition to the current hyper-arid
environment. This finding challenges previous models of continuous dry oxidation and indicates that ancient Mars experienced aqueous alteration before
transitioning to its current desert state.
Pig farming, pork farming, pig production or hog farming is the raising and breeding of domestic pigs as livestock, and is a branch of animal husbandry. Pigs are farmed principally for food (e.g. pork: bacon, ham, gammon) and skins.
Pigs are amenable to many different styles of farming: intensive commercial units, commercial free range enterprises, or extensive farming (being allowed to wander around a village, town or city, or tethered in a simple shelter or kept in a pen outside the owner's house). Historically, farm pigs were kept in small numbers and were closely associated with the residence of the owner, or in the same village or town.[1] They were valued as a source of meat and fat, and for their ability to convert inedible food into meat and manure, and were often fed household food waste when kept on a homestead.[2] Pigs have been farmed to dispose of municipal garbage on a large scale.[3]
All these forms of pig farm are in use today, though intensive farms are by far the most popular, due to their potential to raise a large amount of pigs in a very cost-efficient manner.[4] In developed nations, commercial farms house thousands of pigs in climate-controlled buildings.[5] Pigs are a popular form of livestock, with more than one billion pigs butchered each year worldwide, 100 million in the United States. The majority of pigs are used for human food, but also supply skin, fat and other materials for use in clothing, ingredients for processed foods,[6] cosmetics,[7] and medical use.[8]Pig farming has gained importance today. Pigs have inherited capacity to acclimatize with varying climatic conditions. Pigs cannot withstand high temperature climate.
Pigs are adjusted to varied rearing practices and consume different types of food (Omnivorous) to attain higher growth and meat production.
Pigs will attain 60-70kg body weight in 6-8months period.
Female pigs i.e., sows will come to heat at age of 8-9 months but avoid using male pigs (Boars) for breeding purpose until it attains one year of age.
Adult sows when bred during right time after attaining maturity will farrow 8-12 piglets in 112-118 days of gestation period (i.e., about 4 months of gestation). Feedefficiencyis to gain one Kg live weightfor every 2.75-3kg feed consumed (FCR: 1:2.75). There are many advantageous in pig rearing. Pork is available at a cheaper price with nutritious and highly palatable tasty meat of higher quality animal protein. Pig bones are used for producing bone meal and also used for purification of sugar in sugar industry.
The manure droppings and urine are good fertilizers which enhance the soil fertilityand improve grain production.
Pig hairs (Bristles) are used for making brushes and ropes, hooves are used for shirt button making and preparation of gum. Hence, pigs are called as multi utility domestic animals. Farmers can take up piggery farming and reduce their debt burden and improve their profits and livelihood.
How could modern LA research address data-related ethics issues in informal and situated professional learning? I will identify in this talk three relevant insights based on field studies around workplace LA interventions: Firstly, in informal and situated learning, data isnt just about the learners. Secondly, the affordances of manual and automatic data tracking for learning are very different, with manual tracking allowing a high degree of learner control over data. Thirdly, learning is not necessarily a shared goal in workplaces. These can be translated into seeing a potential for systems endowed with sufficient natural-language-processing capability (now seemingly at our fingertips with LLMs), and socio-technical design and scenario-based data collection analysis as design and research methods.
Overview of basic statistical mechanics of NNsCharles Martin
油
Overview of topics in the paper
A walk in the statistical mechanical formulation of neural networks (2014)
https://arxiv.org/abs/1407.5300
Audio: https://youtu.be/zIxg69Q8UTk
Preparing Ultrasound Imaging Data for Artificial Intelligence Tasks: Anonymis...ThrombUS+ Project
油
At the BIOSTEC 2025 conference, Eleni Kaldoudi, ThrombUS+ project coordinator, presented our recent work entitled Preparing Ultrasound Imaging Data for Artificial Intelligence Tasks: Anonymisation, Cropping, and Tagging. Eleni provided an overview of the application we developed to facilitate the preparation of ultrasound images, acquired via the ThrombUS+ clinical study A, for the purpose of developing AI models for automated detection of deep vein thrombosis.
About ThrombUS+:
Our interdisciplinary approach centers around creating a novel wearable diagnostic device utilizing autonomous, AI-driven DVT detection. This groundbreaking device incorporates wearable ultrasound hardware, impedance plethysmography, and light reflection rheography for early clot detection. Activity and physiological measurements will continuously assess DVT risk, supporting prevention through serious gaming. An intelligent decision support unit will provide real-time monitoring and alerts, with extended reality guiding users for optimal device utilization.
ThrombUS+ is designed for postoperative patients, those undergoing lengthy surgical procedures, cancer patients, bedridden individuals at home or in care units, and women during pregnancy and postpartum.
2. Biomimicry.org | AskNature.org
What is biomimicry?
Bios = the living
world
+
Mimicry = to emulate
Biomimicry is a method engineers
and designers use for creating
innovation, by looking to the
natural world for ideas.
Mateus S. Figueiredo CC by 4.0 Florida Fish and Wildlife CC by 2.0
2
3. Biomimicry.org | AskNature.org
What is biomimicry?
For example, researchers studied how geckos climb walls and
developed materials that mimic the microscopic structures of gecko
feet.
3
4. Biomimicry.org | AskNature.org
Terms and definitions
Biomimicry
Bio-inspired (design)
Biomimetics
Bio-design
Biomimicry tends to focus on nature-inspired innovation that
improves the sustainability of human existence and supports
the planet as a whole.
These all mean
innovation inspired by
nature.
4
5. Biomimicry.org | AskNature.org
Terms and definitions
Biomorphism - looking like something in nature is not biomimicry.
Biomimicry is learning from functional design in nature and
applying it to human innovation. 5
7. Biomimicry.org | AskNature.org
Terms and definitions
Biomimics - people who use or practice biomimicry - get ideas from
biological structures (forms), processes and systems.
7
8. Biomimicry.org | AskNature.org
Emulating biological structures
Biological structures
are the easiest aspect
of the natural world to
recognize.
Biological structures
are everywhere, at
both microscopic and
macroscopic scales..
8
9. Biomimicry.org | AskNature.org
Emulating biological structures
Biological structures
accomplish many
things, so there is a
lot to learn from
these structures to
inform human
designs.
9
10. Biomimicry.org | AskNature.org
Emulating biological structures
For example, biomimics have emulated the microscopic structures on
leaves to create more sustainable hydrophobic (water repellent) surfaces,
e.g. on fabric.
Before this, the primary way hydrophobic surfaces were created used toxic chemicals.
William Thielicke CC by SA 2.5
10
11. Biomimicry.org | AskNature.org
Emulating biological processes
The living world demonstrates
many kinds of biological
processes.
Examples include photosynthesis
and the process by which ants
work together to find food.
11
12. Biomimicry.org | AskNature.org
Emulating biological processes
Humans can learn from and borrow
ideas from biological processes.
Studying photosynthesis has improved
how some types of solar cells work.
Studying how ants work together to
find food has lead to software
programs that can route delivery trucks
more efficiently, helping save time,
money, and reducing greenhouse gas
emissions. 12
13. Biomimicry.org | AskNature.org
Emulating ecological systems
Most manufacturing systems designed by people create a lot of
waste in the process of production. These systems are linear in the
sense that raw materials go into production and waste comes out. 13
14. Biomimicry.org | AskNature.org
Emulating ecological systems
Ecological systems are
characterized by having high
and sustained diversity and
production, despite having low
amounts of nutrients flowing
through them.
They achieve this by efficiently
transferring nutrients through
food chains, i.e., there is no
waste (waste = food).
14
15. Biomimicry.org | AskNature.org
Emulating ecological systems
One way humans can emulate ecological systems is by doing things like recycling
high-value materials, designing things to be easily recyclable, and designing things
to be easily disassembled and biodegradable.
Loozrboy CC by SA 2.0
15
16. Biomimicry.org | AskNature.org
Emulating ecological systems
Humans can also emulate
ecological systems by using
the waste from one
manufacturing process as the
input for another
manufacturing process.
16
#4: More info: https://news.stanford.edu/news/2014/november/gecko-inspired-device-112114.html
Climbing: https://pixabay.com/photos/people-man-guy-climbing-mountain-2572126/
Gecko: https://pixabay.com/photos/gecko-hand-sticky-nature-reptile-800887/
#5: There are many different terms that refer to innovation inspired by Nature. They have different etymologies (word histories) and are used in slightly differing contexts, but they all mean essentially the same thing.
Biomimicry tends to focus on Nature-inspired innovations that improve the sustainability of human existence and supports the planet as a whole.Discussion: Why is it useful to know all these different terms? If you search the internet using one of these terms, will you get all the information you would get if you searched the internet using all of these different terms?
#6: Biomorphism - looking like something in nature is not biomimicry.
Biomimicry is learning from functional design in nature and applying it to human innovation. Innovations inspired by nature may or may not end up looking like the thing that inspired them.
Discussion: What do we mean by functional design? Functional design is design that improves how something performs. This stadium is known as the Birds Nest Stadium, but it doesnt operate any better because it looks like a birds nest. Does this car go any faster just because it has flames painted on it?
Bird nest stadium: https://pixabay.com/photos/stadium-birds-nest-olympic-stadium-3436061/
Car: https://pixabay.com/photos/vintage-car-white-background-hot-rod-3413555
#7: Simply using something from nature is not biomimicry (thats bioutilization). Biomimicry is learning from nature and applying the ideas this evokes to human innovation. Innovations inspired by nature may or may not end up using organic material in a design.
Discussion: Simply using feathers for insulation in a jacket is not biomimicry. What matters is that something in nature gives an inventor an idea for how to improve the design of what people make, , such as studying downy feather structure to create better insulation materials.
Feathers: https://pixabay.com/vectors/feather-blue-falling-plume-flight-1689331/
#8: Biomimics - people who use or practice biomimicry - can get ideas from anything in nature. Biomimics get ideas from biological structures (forms), processes and systems.
Plant in sidewalk: https://pixabay.com/photos/weed-stone-away-plant-sidewalk-2525923/
Heron: https://pixabay.com/photos/heron-egret-landscape-feathers-5394026/
#9: Biological structures are the easiest aspect of the natural world to recognize. Biological structures are everywhere, at both microscopic and macroscopic scales.
Discussion questions: What do we mean by structures? What biological structures can you think of? What biological structures can you see right now? Shapes, textures, and mechanisms are all clearly structures. Here, we mean structures in its broadest sense. Can you think of any biological structures that are invisible? (e.g., microscopic phenomena). (What about biological behaviors, like bird calls? These are not physical structures, perhaps, but biomimics can also draw ideas from biological behaviors.)
Hand: https://pixabay.com/photos/girl-woman-model-fashion-black-2755611/
Dog nose: https://pixabay.com/photos/nose-dog-fur-macro-details-4420535/
Leaf microscopic: https://commons.wikimedia.org/wiki/File:Leaf_epidermis.jpg
Plant: https://pixabay.com/photos/leaf-giant-rhubarb-mammoth-sheet-3504797/
#10: Biological structures accomplish many things, so there is a lot to learn from these structures to inform human designs.
What creates biological structures? (Natural selection.) Why does natural selection tend to create things that perform well? How does this relate to why looking to nature for ideas might be a good idea for inventors? What do we mean when we say that nature is optimized? [If students ask about God, note that it would also make sense to look to nature to improve our technologies and designs if a supernatural entity created nature. However, the role of science is not to explore the supernatural.]
Robotic hand: https://pixabay.com/photos/connection-hand-human-robot-touch-3308188/
Airplane: https://pixabay.com/photos/aircraft-landing-airport-boing-3702676/
Bird: https://pixabay.com/photos/hummingbird-bird-trochilidae-flying-2139279
#11: For example, biomimics have emulated the microscopic structures on leaves to create more sustainable hydrophobic (water-repellent) surfaces, e.g. on fabric. Before this, the primary way hydrophobic surfaces were created was through using highly toxic chemicals.
More info:
https://earthjustice.org/features/breaking-down-toxic-pfas
Lotus: https://pixabay.com/photos/lotus-leaf-water-drop-lotus-water-2420205/
Leaf microscopic: https://commons.wikimedia.org/wiki/File:Lotus2mq.jpg
Fabric: https://pixabay.com/photos/fabric-drop-of-water-drops-of-water-584159/
#12: The living world demonstrates many kinds of biological processes, where characteristic sequences of interacting parts occur. Examples include photosynthesis (in which plants combine CO2 and water using sunlight to create sugars, cellulose, etc.) and the process by which ants work together to find food.
Discussion questions: How is a biological process different than a biological structure? (Processes involve sequences of events, involving the element of time)
Leaves: https://www.pexels.com/photo/green-leaf-leaf-sun-through-leaf-1666166/
Ants: http://www.freestockphotos.biz/stockphoto/10078
#13: Humans can learn from and borrow ideas from biological processes. For instance, by studying photosynthesis people have improved how some types of solar cells work. And by studying how ants work together to find food, computer scientists have written software programs that can route delivery trucks more efficiently, helping save time and money, and reducing greenhouse gas emissions.
油
Can you think of other biological processes? (The physical development of an organism, ecological succession, nitrogen fixation in soil, water purification, etc.)
Discussion questions: How is a biological process different than a biological structure? (Processes involve sequences of events, involving the element of time)
Solar cell: https://pixabay.com/photos/fog-forest-glade-hut-beehive-1923403/
Trucks: https://pixabay.com/photos/highway-road-truck-vehicles-3392100
#14: Discussion questions: Can you think of any linear production systems? Look around and think about how something you can see is produced. What raw materials are used? What waste is created? (there can be solid, liquid, or gaseous waste) Whats wrong with having linear production systems? What problems result? Are linear production systems sustainable? Why/why not?
Pump jack: https://pixabay.com/photos/oil-pump-jack-sunset-clouds-1407715/
Cups: https://www.publicdomainpictures.net/en/view-image.php?image=3924&picture=plastic-cups
Cup on beach: https://pixabay.com/photos/plastic-waste-cup-environment-waste-4236374/
#15: An ecological system, or ecosystem, is a system consisting of biotic and abiotic components functioning together as a unit. 油Ecological systems are characterized by having high and sustained diversity and production, despite having low amounts of nutrients flowing through them. They achieve this by efficiently transferring nutrients through food chains, i.e., there is no waste (waste = food).
Discussion questions: What ecological systems are you aware of? What are the various parts of this system and how do the parts interact? Do all ecological systems have things in common? What do they have in common? (e.g., decomposers, no waste, high productivity, diversity, resilience)
Fungi: https://www.publicdomainpictures.net/en/view-image.php?image=360151&picture=mushrooms-fungi-vintage-art
Flower: https://pixabay.com/photos/plant-high-resolution-2556894/
Caterpillar: https://pixabay.com/vectors/animal-caterpillar-insect-larva-1297960/
Bird: https://pixabay.com/illustrations/birds-magpies-eating-australia-4955497/
Cat: https://pixabay.com/photos/bobcat-wildlife-lynx-predator-1151874/
#16: One way humans can emulate ecological systems is by doing things like recycling high-value materials, designing things to be easily recyclable, and designing things to be easily disassembled and biodegradable.
Discussion: What aspect of nature does recycling mimic? Can you imagine a human-built world where everything gets recycled or composted? What prevents this? What could encourage this? If recycling mimics part of ecological system functioning, why wont recycling work for all materials?
More info: https://www.npr.org/2020/09/11/897692090/how-big-oil-misled-the-public-into-believing-plastic-would-be-recycled https://www.storyofstuff.org/movies/story-of-microfibers/
Recycling: https://pixabay.com/photos/park-waste-separation-recycling-4337477/
Dismantled phone: https://commons.wikimedia.org/wiki/File:Deconstructed_(5581371710).jpg
#17: Humans can also emulate ecological systems by using the waste from one manufacturing process as the input for another manufacturing process.
For example, in a Costa Rican dairy farm, the manure from the cows is fed to bacteria in a device called a biodigester. There, bacteria biodegrade the manure and give off methane. The methane is burned to produce electricity that is used to run the machinery for milking the cows. Meanwhile, the profits from the milk are used to pay off the biodigester.
More info: https://www.ted.com/talks/michael_pawlyn_using_nature_s_genius_in_architecture?language=en
Costa Rica Diary Farm case study, see: https://jyx.jyu.fi/bitstream/handle/123456789/18308/1/9513921549.pdf
Cow: https://pixabay.com/photos/cow-dairy-cow-dress-walk-black-4380646/
Dung: https://pixabay.com/photos/crap-cow-dung-dung-1022586/
Bacteria: https://pixabay.com/photos/koli-bacteria-escherichia-coli-123081/
Methane: https://freesvg.org/methane-molecule-3d