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Can humans live sustainably on Mars or other celestial bodies?
Living sustainably on Mars or other celestial bodies is theoretically possible but poses significant challenges. As for the Mars we have some benefit for having a sustainable life on the planet like: Similar Day-Night cycle Presence of water-ice Potential for terraforming But we also have to face coRead more
Living sustainably on Mars or other celestial bodies is theoretically possible but poses significant challenges. As for the Mars we have some benefit for having a sustainable life on the planet like:
But we also have to face cons for that
While for the other Celestial bodies we face same type of problem for Sustainable life.
While Significant challenges exist, continued technological advancements and investment bring humanity closer to sustainable presence on Mars and beyond.
See lessWhich has higher salary opportunities – Python or Java?
In most cases, Python is even more paying than Java especially in sectors such as the data science, machine learning, AI among others. That said, Java roles, especially in the field of enterprise software and Android are paid as well. While Python is currently used in new technologies and is easierRead more
In most cases, Python is even more paying than Java especially in sectors such as the data science, machine learning, AI among others. That said, Java roles, especially in the field of enterprise software and Android are paid as well. While Python is currently used in new technologies and is easier for automation and data work, it might be more paid; however, both languages can reveal high pay when the mentioned criteria are fulfilled.
See lessWhat is Systems development life cycle
The Systems Development Life Cycle (SDLC) is a step by step process for developing information systems or software. It includes planning, analysis, design, coding, testing, deployment and maintenance to ensure quality, efficiency and user satisfaction. Benefits of Systems Development Life Cycle (SDLRead more
The Systems Development Life Cycle (SDLC) is a step by step process for developing information systems or software. It includes planning, analysis, design, coding, testing, deployment and maintenance to ensure quality, efficiency and user satisfaction.
Benefits of Systems Development Life Cycle (SDLC) –
Challenges to SDLC include changing user requirements, inadequate resources, technical complexities, communication breakdowns, tight deadlines and limited budget. Additionally, managing stakeholder expectations, ensuring scalability and adapting to emerging technologies pose significant hurdles.
IT
India's notable CSE contributors include Raj Reddy (Turing Award), Vinod Khosla (Sun Microsystems co-founder), Narayana Murty (Infosys co-founder) and Satya Nadella (Microsoft CEO). There are several reasons why India's contributions to computer science and engineering (CSE) inventions may seem limiRead more
India’s notable CSE contributors include Raj Reddy (Turing Award), Vinod Khosla (Sun Microsystems co-founder), Narayana Murty (Infosys co-founder) and Satya Nadella (Microsoft CEO).
There are several reasons why India’s contributions to computer science and engineering (CSE) inventions may seem limited –
Initiatives like Make in India, Startup India, Digital India and Atal Innovation Mission promote CSE innovation while schemes like Visvesvaraya PhD Scheme and PM Research Fellows encourage research and entrepreneurship.
Information Technology
High Demand and Career Opportunities Job Market Growth: The IT sector is experiencing unprecedented growth, with nearly every organization requiring digital solutions. This demand translates to a plethora of job opportunities for CSE graduates, making it a preferred choice for many students LucrativRead more
High Demand and Career Opportunities
Diverse Career Options
Variety of Roles
Global Opportunities
Practical Learning and Innovation:
Focus on Practical Skills
Creative Opportunities
Explain the elements and process of remote sensing.
Remote Sensing is a technology that is used for collecting and analyzing information and examine about objects or phenomenon without making any physical contact with it. This technology used to in several kind of fields like geography, ecology, geology, hydrology, glaciology and oceanography. HoweveRead more
Remote Sensing is a technology that is used for collecting and analyzing information and examine about objects or phenomenon without making any physical contact with it. This technology used to in several kind of fields like geography, ecology, geology, hydrology, glaciology and oceanography.
However, conventionally, Remote sensing refers to the identification of earth features by detecting the characteristic electromagnetic radiation that is reflected by the earth surface.
In simply, we can say that the technology which can sense from camera or sensor without physical contact that is remote sensing.
Remote sensing uses sensors mounted on different platform to measures energy response. Sensors are either active or passive. Active sensors illuminate a target with a know energy source and measure the time, phase, intensity and other characteristics of the reflected energy. Passive sensors measure natural energy usually sunlight that is reflected or emitted form an object.
Elements of Remote sensing:
How many types of earth resources satellite are there? Describe briefly.
Earth resource satellites are supposed to monitor and collect data on the natural resources, environment, and human activity of Earth. These are taken into different types considering the nature of data collected and the technology used. These types include: Optical Satellites Purpose: They record iRead more
Earth resource satellites are supposed to monitor and collect data on the natural resources, environment, and human activity of Earth. These are taken into different types considering the nature of data collected and the technology used. These types include:
Purpose: They record images of the Earth’s surface using visible and infrared light.
Usage: Used mainly for vegetation monitoring, urban planning, agriculture, and land-use studies.
Examples: Landsat series, Sentinel-2.
Function: It uses radar signals to map the Earth’s surface; it can look through clouds and functions under all weather conditions even at night.
Usage: Terrain mapping, monitoring deforestation, land subsidence, movements of ice sheets, and locating oil spills.
Examples: Sentinel-1, RADARSAT.
Function: The satellites can capture the wide spectrum of light and spread it over hundreds of narrow bands, so they can detect the chemical composition and specific material.
Usage: It is used for mineral exploration, agricultural analysis, discovery of pollution, and water quality monitoring.
Examples: EO-1 Hyperion, PRISMA.
Function: They can measure the thermal (infrared) radiation emitted by objects on Earth by sensing surface temperatures.
Usage: It is used for monitoring wildfires, urban heat islands, volcanic activities, and changes in ocean temperature.
Examples: Landsat 8’s TIRS (Thermal Infrared Sensor), ASTER.
Function: Surface height of Earth distance, with a special focus on oceans, using radar or laser altimetry.
Applications: Sea level rise studies, oceanic circulation, ice sheet height monitoring, among others, and elevation changes over land.
Examples: Jason series CryoSat
All types of satellites yield rather different kinds of measurements and are often complemented with one another to achieve a more detailed understanding of Earth’s resources and environment.
See lessTo become CEO of your Company, which thing is matter? Is that Education, or Is that Experience or Is that Money.
To become a Chief Executive Officer (CEO), multiple factors comes into play including education, experience, networking, personality and also objectivity. A CEO is the topmost executive in an organization responsible for its growth, revenue generation and profitability. A CEO is usually highly qualiRead more
To become a Chief Executive Officer (CEO), multiple factors comes into play including education, experience, networking, personality and also objectivity. A CEO is the topmost executive in an organization responsible for its growth, revenue generation and profitability. A CEO is usually highly qualified and experienced professional.
Education:
A CEO’s qualifications often require formal education in business-related majors, industry experience and knowledge of multiple business and management domains although specifics may vary based on the organization’s scope and objectives.
Experience:
Years of experience in a leadership role are essential to develop the skills and knowledge needed to be a CEO. Most CEOs have at least five years of managerial experience. Picking the right companies is highly essential not only to gaining skills but also to building a good network of peers.
Networking:
Building meaningful relationships and connections is step one when it comes to expanding your influence. CEOs and C-suite leaders network with other business leaders and industry experts to exchange ideas and get advice, like mistakes to avoid or how to resolve a common labour concern. Reinventing the wheel is unnecessarily expensive and time-consuming.
Personality:
A CEO often focus on developing skills like communication, creativity, risk analysis, decision-making, critical- thinking, negotiation and time- management to successfully manage an organization.
A successful CEOs are capable for transforming the business landscape and sometimes, even the ecosystem in which the business operates. but, creating a career path to become a CEO is not easy. It varies based on companies, industries, market and people.
difference between gram positive and gram negative bacteria.
The main difference between Gram-positive and Gram-negative bacteria is their cell wall, which affects how they react to Gram staining, a way to classify bacteria. Gram-positive bacteria have a thick wall made of peptidoglycan, a strong material that traps the crystal violet dye during Gram stainingRead more
The main difference between Gram-positive and Gram-negative bacteria is their cell wall, which affects how they react to Gram staining, a way to classify bacteria.
Gram-positive bacteria have a thick wall made of peptidoglycan, a strong material that traps the crystal violet dye during Gram staining. This makes them look purple under a microscope. Their thick wall gives them strength and protection. They don’t have an outer membrane, but some have teichoic acids that help keep their shape and may play a role in causing disease. Common examples are Staphylococcus and Streptococcus.
Gram-negative bacteria have a thinner peptidoglycan wall and an extra outer membrane made of lipopolysaccharides (LPS). In Gram staining, the crystal violet washes away, and they take up a red dye called safranin, making them look pink or red under the microscope. Their outer membrane provides extra protection and makes them less sensitive to some antibiotics. However, this outer layer also has endotoxins that can trigger strong immune reactions in humans. Examples include Escherichia coli and Salmonella.
In short, Gram-positive bacteria have a thick cell wall and look purple, while Gram-negative bacteria have a thinner wall with an extra membrane and look red or pink. This outer membrane also makes Gram-negative bacteria more resistant to certain antibiotics.
See lessArtificial intelligence
Artificial intelligence (AI) has progressed swiftly, changing many parts of our existence. While it holds huge growth potential, it also presents serious challenges. AI has the potential to both benefit and harm humans. On the bright side, AI has the potential to transform industries and improve peoRead more
Artificial intelligence (AI) has progressed swiftly, changing many parts of our existence. While it holds huge growth potential, it also presents serious challenges.
AI has the potential to both benefit and harm humans.
On the bright side, AI has the potential to transform industries and improve people’s quality of life. In healthcare, AI-powered diagnostic technologies can discover illnesses sooner, resulting in more effective treatments. Self-driving cars promise safer driving and less traffic congestion. AI may also automate routine jobs, freeing up human resources for more creative pursuits.
While AI has many advantages, there are also obstacles to have been generated due to AI. One of them is that AI could replace human labour by automating tasks that were previously done by humans, which was their source of Income. AI systems can make assumptions that could support that is why they cannot be always true. The development of autonomous weapons also brings up moral questions about their application and misuse potential. Furthermore, transparency and ethical standards may be compromised if a few companies cannot control the amount of AI power, leading to a lack of oversight and accountability.