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6 Ways Technology Is Innovating With Waste Management
India generates roughly 250 million tons of trash every single year and only 34% of it is being recycled. Many different stats that reveal shocking trash tendencies despite environmental awareness. The difficulty of waste management has never been so extreme before, which is why today this industry employs nearly half a million people who undertake the gigantic task of disposing of at least 4.4 pounds of waste for every single Indian day in and day out.
Below are 6 key points that are undergoing a massive transformation in the waste management industry:
Improved Recycling Rates
Today, many waste management companies are investing in improving their tools and techniques. The latest development in recycling where people can dump all the trash in one bin has reduced the sorting burden on people and drastically improved the rate of recycling. This has also decreased the truck count and ultimately the emissions as well.
Automated Waste Collection
Innovations in technology have transformed the way waste management works. There are automated sensors that trigger instant alerts every time a container is full and needs service. Other Innovative and technological tools that are making the sorting process fast and easy include optical sorters, magnets, and advanced disk screens. Now, the trucks have also switched from diesel to natural gas for quieter and cost-effective operations.
Route Optimization
Route optimization is important for protecting the environment and decreasing harmful emissions which is why companies are investing in advanced systems and optimization software. Now, they are utilizing automated trucks that are installed with robotic arms for saving time and effort along existing routes.
Landfill Modernization
The waste management industry has modernized garbage dumps for harnessing the power of science and scale. Extremely designed landfills that comply with federal and state regulations ensure complete protection of human health and the surrounding environment.
Enhanced Safety
Many waste management companies are concentrating to improve safety which is of prime importance to an industry running several 30-ton trucks through residential areas. All the drivers are subjected to train at designated facilities to reduce the rate of accidents and injuries.
Quick Turnaround Times
Many bigger waste management companies have also invested in feature-rich customer-facing technology. They are developing user-friendly mobile apps to facilitate prompt service, extra pickups, and bill payment through push notifications.
These are some of the ways that technology is innovating in the waste management sector. It doesn't matter what industry you’re in, new technology is eventually going to come along and change the way business is done. That’s why all of us here at LAHS ECO Engineering stands for waste management company pay attention to the latest advances and newest tech industry to effectively manage your waste.
Everyone knows that Agile is an method name used in app development where a complex task is divided into a series of development cycles.
While using agile process for software development, we can gain a lot of insights like fast decision making, gets collaborative and will get better software releases on time. we will get feedback quickly from clients as well as allows re-prioritize when business needs change.
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Just like teenagers, robot drivers need lots of practice. iurii/Shutterstock.com
What do self-driving cars and teenage drivers have in common?
Experience. Or, more accurately, a lack of experience.
Teenage drivers – novice drivers of any age, actually – begin with little knowledge of how to actually operate a car’s controls, and how to handle various quirks of the rules of the road. Their first step in learning typically consists of fundamental instruction conveyed by a teacher. With classroom education, novice drivers are, in effect, programmed with knowledge of traffic laws and other basics. They then learn to operate a motor vehicle by applying that programming and progressively encountering a vast range of possibilities on actual roadways. Along the way, feedback they receive – from others in the vehicle as well as the actual experience of driving – helps them determine how best to react and function safely.
The same is true for autonomous vehicles. They are first programmed with basic knowledge. Red means stop; green means go, and so on. Then, through a form of artificial intelligence known as machine learning, self-driving autos draw from both accumulated experiences and continual feedback to detect patterns, adapt to circumstances, make decisions and improve performance.
For both humans and machines, more driving will ideally lead to better driving. And in each case, establishing mastery takes a long time. Especially as each learns to address the unique situations that are hard to anticipate without experience – a falling tree, a flash flood, a ball bouncing into the street, or some other sudden event. Testing, in both controlled and actual environments, is critical to building know-how. The more miles that driverless cars travel, the more quickly their safety improves. And improved safety performance will influence public acceptance of self-driving car deployment – an area in which I specialize.
Starting with basic skills
Experience, of course, must be built upon a foundation of rudimentary abilities – starting with vision. Meeting that essential requirement is straightforward for most humans, even those who may require the aid of glasses or contact lenses. For driverless cars, however, the ability to see is an immensely complex process involving multiple sensors and other technological elements:
radar, which uses radio waves to measure distances between the car and obstacles around it
LIDAR, which uses laser sensors to build a 360-degree image of the car’s surroundings
cameras, to detect people, lights, signs and other objects
satellites, to enable GPS, global positioning systems that can pinpoint locations
digital maps, which help to determine and modify routes the car will take
a computer, which processes all the information, recognizing objects, analyzing the driving situation and determining actions based on what the car sees.
How a driverless car ‘sees’ the road.
All of these elements work together to help the car know where it is at all times, and where everything else is in relation to it. Despite the precision of these systems, however, they’re not perfect. The computer can know which pictures and sensory inputs deserve its attention, and how to correctly respond, but experience only comes from traveling a lot of miles.
The learning that is occurring by autonomous cars currently being tested on public roads feeds back into central systems that make all of a company’s cars better drivers. But even adding up all the on-road miles currently being driven by all autonomous vehicles in the U.S. doesn’t get close to the number of miles driven by humans every single day.
Dangerous after dark
Seeing at night is more challenging than during the daytime – for self-driving cars as well as for human drivers. Contrast is reduced in dark conditions, and objects – whether animate or inanimate – are more difficult to distinguish from their surroundings. In that regard, a human’s eyes and a driverless car’s cameras suffer the same impairment – unlike radar and LIDAR, which don’t need sunlight, streetlights or other lighting.
This was a factor in March in Arizona, when a pedestrian pushing her bicycle across the street at night was struck and killed by a self-driving Uber vehicle. Emergency braking, disabled at the time of the crash, was one issue. The car’s sensors were another issue, having identified the pedestrian as a vehicle first, and then as a bicycle. That’s an important distinction, because a self-driving car’s judgments and actions rely upon accurate identifications. For instance, it would expect another vehicle to move more quickly out of its path than a person walking.
Try and try again
To become better drivers, self-driving cars need not only more and better technological tools, but also something far more fundamental: practice. Just like human drivers, robot drivers won’t get better at dealing with darkness, fog and slippery road conditions without experience.
Testing on controlled roads is a first step to broad deployment of driverless vehicles on public streets. The Texas Automated Vehicle Proving Grounds Partnership, involving the Texas A&M Transportation Institute, University of Texas at Austin, and Southwest Research Institute in San Antonio, Texas, operates a group of closed-course test sites.
Self-driving cars also need to experience real-world conditions, so the Partnership includes seven urban regions in Texas where equipment can be tested on public roads. And, in a separate venture in July, self-driving startup Drive.ai began testing its own vehicles on limited routes in Frisco, north of Dallas.
These testing efforts are essential to ensuring that self-driving technologies are as foolproof as possible before their widespread introduction on public roadways. In other words, the technology needs time to learn. Think of it as driver education for driverless cars.
People learn by doing, and they learn best by doing repeatedly. Whether the pursuit involves a musical instrument, an athletic activity or operating a motor vehicle, individuals build proficiency through practice.
Self-driving cars, as researchers are finding, are no different from teens who need to build up experience before becoming reliably safe drivers. But at least the cars won’t have to learn every single thing for themselves – instead, they’ll talk to each other and share a pool of experience.
Johanna Zmud is a Senior Research Scientist at the Texas A&M Transportation Institute, Texas A&M University.
This article was originally published on The Conversation.
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