Vous êtes un professionnel de la robotique. Comment pouvez-vous innover d’une manière qui profite à la société ?

The first step to innovating in robotics is to identify a problem that you want to solve or a need that you want to meet. You can use different methods to discover and define the problem, such as observing, interviewing, researching, or brainstorming. The key is to understand the context, the stakeholders, the goals, and the constraints of the problem. Once you have identified the problem, you can use your creativity, expertise, and resources to create new solutions, technologies, or products that address the problem and meet the need. The success of your innovation depends on the relevance, feasibility, and value of your solution, as well as your ability to communicate, collaborate, and implement it effectively

The implementation of a robot must be carefully defined, it is important to define its needs and not to neglect the implications that this requires. Robotization is there to overcome a problem or a set of problems but be careful what may be valid in one sector of activity is not necessarily transposable to another sector.

The problems don't need to be extreme: grab a teach pendant and just make a robot do some basic thing that can keep an operator away from a machine. Freeing a human's time is the biggest impact I see with Automation. Give them time to do more human things. They might be the next nobel laureate/surgeon/social worker etc.

Innovation is a double-edged sword and it is or its effect is been both constructive and destructive. Therefore, whether the society is benefited or not is decided by how the Robotics been used. Also, it depends on the needs of the society. Sensible use of robotics is crucial.

Lets talk with example Robotic Waste Management Innovation Problem: Inefficient waste management leads to environmental issues. Solution: Develop autonomous robots to sort and recycle waste efficiently. Impact: Enhanced recycling, reduced landfill strain, and environmental protection. This innovation could significantly improve waste management systems, contributing to a sustainable future.

The next step is to design a solution that utilizes robotics to address specific problems or meet needs. This may involve creating a new robot, modifying an existing one, or integrating robotics with other technologies. Tools such as sketching, prototyping, modeling, and simulation can be used to develop the solution, considering functionality, usability, feasibility, and convenience.

Once a problem is identified, the design phase involves crafting a robotic solution. This could entail creating a new robot, modifying an existing one, or even integrating robotics with other technologies. Tools like sketching, prototyping, and simulation can aid in designing the solution. The key factors to consider during this stage are functionality, usability, feasibility, and desirability of the solution.

A couple of robotic arms hanging from a truck can harvest fruit trees like apples. or use drones to pick small fruits, integrating AI and training it to identify and predict harvesting time and using that data to plan the harvest the next day will save time and resources.

Desenvolva uma solução robótica utilizando técnicas avançadas de inteligência artificial, como aprendizado de máquina, visão computacional e processamento de linguagem natural. Certifique-se de que a solução seja viável, eficiente e capaz de resolver o problema identificado.

Create a versatile healthcare robot equipped with AI-driven capabilities for tasks like medication dispensing, patient monitoring, and routine procedures. Incorporate a user-friendly interface to ensure seamless collaboration with healthcare providers, improving overall efficiency in healthcare delivery.

In the test and evaluation phase, it is crucial to prioritize ethical considerations when developing robotics and AI solutions. By designing and building these technologies with a strong foundation of ethical principles, we can avoid perpetuating and exacerbating existing biases and discrimination. It is essential to ensure that the solutions do not negatively impact users. Safety must be in the design, not just an afterthought. This ensures that the solution meets the needs of the society it aims to benefit. We must always ask and seek answers to the question:` "How can I ensure my solution is ethical, safe and responsible for users?"

Conduct thorough simulations to assess the robot's performance in various healthcare scenarios. Collaborate with healthcare professionals to conduct real-world trials, gathering feedback on usability, reliability, and the impact on patient care. Continuous evaluation and refinement based on these insights will ensure the effectiveness of the solution.

Conduct thorough simulations to assess the robot's performance in various healthcare scenarios. Collaborate with healthcare professionals to conduct real-world trials, gathering feedback on usability, reliability, and the impact on patient care. Continuous evaluation and refinement based on these insights will ensure the effectiveness of the solution.

For the third step, get your robotics solution into the real world for testing. Run it through experiments or pilot projects with those who'd actually use it. Track how it performs across various benchmarks like effectiveness, user-friendliness, and reliability. Gather lots of feedback, both the good and the challenging. Use this invaluable info to tweak and enhance your robot, making sure it not only solves the problem but does so in a way that's genuinely helpful and user-friendly. This phase is crucial for turning a good idea into a practical, impactful innovation.

The use of progressive testing in the project development phase is absolutely necessary in every branch of engineering. In contrast to other disciplines where before production only simulation tools are available, in robotics it is crucial to be able to move from simulation testing to testing on the real machine. A great many factors are not easily modeled and can still play an important role in performance. In my experience, the solutions that can withstand systematic and widespread use are only those for which a major field test campaign has been carried out, regardless of the application context: this applies equally to a high-performance drone as to a social robot.

Collaborate with healthcare institutions to implement the robotic solution in controlled environments. Gradually scale the deployment based on performance feedback, addressing any issues that arise. Establish partnerships for manufacturing and distribution to ensure widespread availability and affordability, facilitating broad adoption across healthcare settings.

Para implementar e dimensionar a cadeira de rodas parametrizada, é necessário seguir alguns passos: Produção em escala: Estabelecer parcerias com fabricantes para produzir as cadeiras de rodas em larga escala. Testes e validação: Realizar testes rigorosos para garantir a segurança, funcionalidade e conforto das cadeiras de rodas parametrizadas. Certificações: Certificações em conformidade com as normas de segurança e qualidade. Canais de distribuição:disponibilizar as cadeiras de rodas em locais estratégicos. Marketing e divulgação: Criar estratégias de marketing e campanhas de conscientização. Suporte pós-venda: Serviço de suporte eficiente para atender às necessidades dos usuários, assistência técnica, manutenção e orientações.

Now, take your robot from testing to real-world impact. Plan a launch that targets the communities or sectors most in need. Consider partnerships for wider reach and investment for scale. Use social media, presentations, and demos to showcase its benefits. Scaling up means tackling hurdles like cost and access but focus on how your robot can change lives. This stage is where innovation meets societal transformation, offering your solution as a new tool for progress.

Step four should be fairly easy if you’ve completed your research, you should have your targeted market via testing and be able to launch to consumers when your robot is ready to scale. Stay connected with the users and continually check in on how well the product is doing. Take feedback and go back to redesign to improve upon the product and then find a new market or continue to implement to your current market. Place out ads and encourage your network to use/advertise your product.

When implementation target is to bring your product to certain market, then You'll want to certify it. It may be difficult when You have a product but it was not designed accordingly to certification rules for certain market. Start development and certification at same time, because the construction review or cunsulting with certification autorities may help to identify critical issues in design on early stage and You'll be able to avoid failed certification, because of your product incompatible with standards for selected market.

Certainly! Here are examples of innovations: Healthcare Robotics: The da Vinci Surgical System is a prime example. It assists surgeons in performing minimally invasive surgeries with greater precision and control, leading to faster recovery times and reduced risks for patients. Agricultural Robotics: The FarmBot is an automated robotic system designed for precision farming. It can plant seeds, water crops, and remove weeds autonomously, revolutionizing traditional agricultural practices with its efficiency and precision.

As a robotic professional, you can innovate by creating robots that assist healthcare workers, enhance education, protect the environment, aid people with disabilities or the elderly, improve agriculture, assist in disaster response, and provide companionship for those in need. By focusing on these areas, you can develop robots that make a tangible and positive impact on society by improving efficiency, quality of life, and overall well-being.

Innovation in robotics for societal benefit is designing robots to assist in agriculture. Develop robots capable of tasks like planting seeds, applying fertilizers, or harvesting crops. These robots can increase efficiency, reduce labor costs, and contribute to sustainable farming practices, ultimately benefiting society by ensuring food security.

Innovation for technology's sake is fun for sure but when we dial and force it towards innovation .... for societal benefit, things get a bit tricky. Feels a bit forced as it's a double edged sword. On one hand it frees human time and on the other it puts people out of jobs and gives rise to "dark factories". Problem is deeper than it first appears as our society is not designed to put free human time to good use. Feels like the word limit of 750 is not enough here

Essa combinação de robótica e IA representa um avanço significativo na tecnologia assistiva, proporcionando maior independência, segurança e qualidade de vida para os usuários de cadeiras de rodas. A inovação robótica com IA para cadeiras de rodas promete transformar a experiência de mobilidade e abrir novas possibilidades para a inclusão e acessibilidade de pessoas com mobilidade reduzida. Ergonomia adaptada para cada corpo e movimentos com IA para adequar a segurança do corpo. Aqui estão algumas maneiras pelas quais a IA pode ser incorporada às cadeiras de rodas: Navegação autônoma: Reconhecimento de voz e comandos: Aprendizado de máquina para adaptação Detecção de quedas e alertas de segurança: Integração com dispositivos inteligentes:

It's important to think about how the public will perceive your robot. We want robots to be socially accepted. Scary images of robot armies or robots wielding weapons or flame throwers accomplish just the opposite. When you're about to release that video, ask yourself "would an 8 year old be excited or scared of this? how about an 80 year old? how about your next door neighbor?"

The world of robotics is seeing a paradigm shift. The growth of the industry is akin to that of Computers. In the early days nobody would have guessed that computers big, small or invisible would be in everything we interact with today. In similar fashion, you shouldn't just stick to perception of today. In basic terms anything that can be automated, can be turned into a robot. A ship(ROVs), plane(Drones) or a freaking building. having said that, I see huge potential in solving the problem of integration and scalability of robotic systems. I am working on doing so through creating a Robotic process automation platform.

New robotic system for social needs is one of the best way to use new technologies and capabilities to help humans. We should keep in mind that one of the main challenge is to integrate it in the social space with the humans. Deep thinking should be made on this subject during all the phases of the system development.

Whenever you design a robotic platform that has an interaction with the public, you should strive to make that interaction as natural and fluid as possible. Robots are still relatively new objects in our society, and the perception of the general public is strongly influenced by their long-standing presence in fiction and the visual arts. Creating modes of use in which the user perceives the machine as safe and easily manageable is critical to creating a conscious and productive relationship with the tool.

Parametric design with rapid prototyping may be a "one suit fits many" solution for affordable robotic implementation into the price sensitive industries.

As a robotics professional, innovation for societal benefit can include healthcare assistance, disaster response, agricultural automation, education support, environmental monitoring, urban mobility improvement, humanitarian aid, and ethical considerations. Prioritizing these areas ensures technology serves humanity's needs, enhancing safety, efficiency, and inclusivity.

The robotics market isn't necessarily new, but the capabilities of robotics, as well as their drop in prices has allowed access to many companies that previously would not have had the capital to invest in them. With this came an explosion in companies making robotic products of every type. Other than the most specialized of applications, there will be dozens if not hundreds of brands to choose from. This is great, as it's driving innovation, yet as a customer looking to buy a robot to implement into your business, it's important to realize that most of these companies come & go quickly. They are acquired or go under, so invest wisely, or parts & services may not be around, when your large purchase is in need of repair.

Robotics professionals can innovate for social good by focusing on areas that address critical needs and challenges. These include assistive robotics for underserved communities, waste management and recycling robots, precision agriculture robots, disaster response and infrastructure repair robots, and disaster response and infrastructure repair robots. To innovate, focus on user needs, ethical considerations, and open-source collaboration. Involving potential users in the design process ensures robots are user-friendly and ethically designed, while promoting open-source development accelerates innovation and makes core robotic technologies more accessible for social good projects.

The open-source approach that encourages code reusability and the establishment of shared standards and conventions has been behind the evolution of the state of the art in robotics over the past 10 years. ROS, the most widely used robot operating system, is the most emblematic example of how impactful contributions can be in an open community and what academia can do for everyone (ROS was born from an academic project). I believe that this is a merit of modern robotics and should be recognized.

One way is to not to replace the workforce with robotics completely. But to implement robotics into hazard's environments for people. And retrain the workforce to operate or to monitor robotics remotely in a safe environment that is conducive to people. Such hazardous environments include underwater, refineries, mining, road construction, nuclear power plants, demolitions, arctic research centers and of course outer space. The list goes on.