Industry 4.0 or Fourth Industrial Revolution refers to the process of digitization and automation of remote controlled jobs in the industrial sector. In this technological revolution, robotics and connectivity are the backbone of the manufacturing processes. The so-called Intelligent Industry, improves productivity, manufacturing costs, the quality of business and companies.

What is Industry 4.0, the Fourth Industrial Revolution

Industry 4.0 and the fourth Industrial revolution
Contents Index
What is connected industry and characteristics of 4.0 technologies
Industry 4.0 refers to the introduction in the production of advanced and intelligent technologies through the use of Internet applications as an essential tool. The digital integration of information is carried out using as pillars the technological advances that have occurred in robotics, Artificial Intelligence, data analytics (Big Data) and the Internet of Things (Internet of Things).

This flow of information between applications within the connected industry is called PDP, which is the acronym for “Physical to Digital to Physical”.

From physical to Digital. Physical information is taken and transformed into digital data.
From Digital to Digital. The data is collected and analyzed through analytics (Big Data) and processed by Artificial Intelligence algorithms.
From Digital to Physical. The result is transmitted to the physical world to communicate a decision or order.
The industry connected to Artificial Intelligence is characterized by offering immediate results with a degree of analysis and study infinitely greater than the traditional one. The technologies of Industry 4.0 are influenced, as well as complemented by others, such as Artificial Vision, Virtual and Augmented Reality, Cloud Computing or the intelligent virtual assistants themselves.

What is connected industry 4.0 and the technologies of industry 4.0
Connectivity in the Fourth Industrial Revolution


The optimization of processes is a large-scale challenge for the ecosystem of companies and organizations. The industrial sectors of the countries that do not manage to adapt to Industrial automation will see their survival chances and their potential diminished, since they compete in the market at a clear disadvantage and with lower profitability of a product.

To achieve this, associated technologies are used, such as 5G networks that allow fast data transmission between devices. A complete revolution is taking place in warehouse logistics, with the implementation of robots or autonomous AGV and AIV vehicles.

Cybersecurity in Industry 4.0
Preserving the security of the information that is most sensitive to production processes and especially customer data, is one of the great challenges we will face in the coming decades. Today, obtaining the most sensitive data of your clients is more lucrative than robbing a bank. The same happens with obtaining confidential information from the production processes and data analysis of your competitors.

An example is the dozens of cyber threats that a Vitoria robotics company called Alias ​​Robotics has detected in Universal Robots robots. Can you imagine hackers paralyzing a robotic car production line? What if bots start offering their customers toxic financial products? Well, to tell the truth, banks have never required the intervention of hackers to offer these services …

Industry 4.0 examples
Impact of Industrial 4.0 transformation
The Era of technological transformation of companies is allowing more versatile responses to a product or client, as well as an increase in business results. Studies show that smart factories that have integrated IT systems increase their production capacity by 20%. Intelligent organizations develop forms of production being more flexible, fast, efficient and with greater analysis capacity.

Of course, the digitization of industrial production processes also affects employees, improving the health and safety of the workers themselves. Nevertheless, they are not the only ones. Organizations now manage their productivity methods through software, which allows them to be more predictive and make decisions in real time.

Impact of Industrial 4.0 transformation
We see that in the Era of Connected Industry, the personalization of products to customers allows them to individualize their needs, increasing the degree of satisfaction in the consumption of a product and with the company itself. It is due to How Big Data works and the implementation of the Internet of Things to Industry 4.0

XProtect’s open platform architecture has fostered an ever-expanding community of camera manufacturers, application providers and software developers, all working to create integrations and extensions to XProtect.

Milestone XProtect Video Management Software

Building your video installation on XProtect gives you the opportunity to leverage this community and its thousands of integrated solutions, so you can add additional value and capabilities to your system. XProtect video management software brings all the puzzle pieces of a video surveillance installation together in a perfect combination to create a solution that keeps people and property safe today – and tomorrow.

 

 

Initial shipments of new FLIR A400/A700 thermal sensor solution to be prioritised for entities working to mitigate the spread of COVID-19     

FLIR Systems has launched the FLIR A400/A700 Thermal Smart Sensor and Thermal Image Streaming fixed camera solutions for monitoring equipment, production lines, critical infrastructure and screening for elevated skin temperatures.

These highly configurable smart camera systems provide accurate, non-contact temperature monitoring across a wide range of disciplines: manufacturing process control, product development, emissions monitoring, waste management, facilities maintenance, and Environmental, Health, and Safety (EHS) improvements.

FLIR launches Thermal Smart Sensor solution for temperature screening

The FLIR A400/A700 Thermal Smart Sensor solution initially will be prioritised for those responding to COVID-19. For all applications, the series offers multi-image streaming, edge computing, and Wi-Fi connectivity to help speed data flow and enable faster decisions, improving productivity and safety for professionals.

FLIR designed the A400/A700 cameras with two configurations to better meet application-specific needs. The Thermal Smart Sensor configuration, recommended for measuring elevated skin temperatures, incorporates advanced measurement tools and alarms with edge computing to enable faster critical decisions.

The Image Streaming configuration provides multiple thermal streaming capabilities to help optimise process control, improve quality assurance, or identify potential failures that could shut down a production line.

Users design their systems by choosing either the Smart Sensor or Imaging Streaming configurations, selecting either the A400 or A700 camera body based on the resolutions they need, and then adding lenses and a range of optional features to fit their application.

“For more than 40 years, FLIR thermal imaging has provided technologies for professionals to improve not only their capabilities, but also their safety on the job,” says Jim Cannon, President and CEO at FLIR.

“As the world works together to face the global COVID-19 pandemic, given the need for this technology, FLIR will prioritise initial deliveries of this new A-series camera to professionals using it in elevated skin temperature screening as an adjunct to other elevated body temperature screening tools to help to fight the spread of the virus.”

Also, FLIR currently is in beta testing for an automated elevated skin temperature screening software solution that is fully integrated with its United States Food and Drug Administration-certified thermal cameras. The solution is designed to rapidly increase the accuracy, ease-of-use, and speed of existing screening procedures. FLIR will share an announcement about its solution in Q2 2020.

Initial Shipments of New FLIR A400/A700 Thermal Sensor Solution to be Prioritized for Entities Working to Mitigate the Spread of COVID-19 Virus

ARLINGTON, Va. March 31, 2020 – FLIR Systems, Inc. (NASDAQ: FLIR) today announced the FLIR A400/A700 Thermal Smart Sensor and Thermal Image Streaming fixed camera solutions for monitoring equipment, production lines, critical infrastructure, and screening for elevated skin temperatures. These highly configurable smart camera systems provide accurate, non-contact temperature monitoring across a wide range of disciplines: manufacturing process control, product development, emissions monitoring, waste management, facilities maintenance, and Environmental, Health, and Safety (EHS) improvements. The FLIR A400/A700 Thermal Smart Sensor solution initially will be prioritized for those responding to COVID-19. For all applications, the series offers multi-image streaming, edge computing, and Wi-Fi connectivity to help speed data flow and enable faster decisions, improving productivity and safety for professionals.

FLIR designed the A400/A700 cameras with two configurations to better meet application-specific needs. The Thermal Smart Sensor configuration, recommended for measuring elevated skin temperatures, incorporates advanced measurement tools and alarms with edge computing to enable faster critical decisions. The Image Streaming configuration provides multiple thermal streaming capabilities to help optimize process control, improve quality assurance, or identify potential failures that could shut down a production line.

Users design their systems by choosing either the Smart Sensor or Imaging Streaming configurations, selecting either the A400 or A700 camera body based on the resolutions they need, and then adding lenses and a range of optional features to fit their application.

“For more than 40 years, FLIR thermal imaging has provided technologies for professionals to improve not only their capabilities, but also their safety on the job,” says Jim Cannon, President and CEO at FLIR. “As the world works together to face the global COVID-19 pandemic, given the need for this technology, FLIR will prioritize initial deliveries of this new A-series camera to professionals using it in elevated skin temperature screening as an adjunct to other elevated body temperature screening tools to help to fight the spread of the virus.”

Also, FLIR currently is in beta testing for an automated elevated skin temperature screening software solution that is fully integrated with its United States Food and Drug Administration-certified thermal cameras. The solution is designed to rapidly increase the accuracy, ease-of-use, and speed of existing screening procedures. FLIR will share an announcement about its solution in Q2 2020.

FLIR A400/A700 Thermal Smart Sensor and Thermal Image Streaming cameras are available for purchase today globally from FLIR distributor partners. To learn more, please visit www.flir.com/A400-A700-Series.

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About FLIR Systems, Inc.
Founded in 1978, FLIR Systems is a world-leading industrial technology company focused on intelligent sensing solutions for defense, industrial, and commercial applications. FLIR Systems’ vision is to be “The World’s Sixth Sense,” creating technologies to help professionals make more informed decisions that save lives and livelihoods. For more information, please visit www.flir.com and follow @flir.

FLIR A400/A700 Thermal Smart Sensor and Thermal Image Streaming cameras are available for purchase today globally from FLIR distributor partners. To learn more, please visit www.flir.co.uk/A400-A700-Series.

Is this microreactor the future of nuclear architecture?

The 50-foot-tall Aurora plant, designed by Oklo, unites old and new aspects of nuclear power.

Gensler’s design for Oklo’s Aurora micro-reactor and power plant. All images courtesy of Oklo.

Although nuclear power and weapons have influenced design since the  Atomic Age  , a new power plant designed by  Oklo  , developer of a 1.5MW compact passive fast reactor, is poised to start a new wave of nuclear architecture. The 50-foot-tall Aurora Microreactor Plant unites old and new aspects of nuclear power in several ways; Oklo made headlines recentlyAnnounced that Aurora, which is expected to begin operating in 2024, will be powered by low-enriched uranium from the Idaho National Laboratory. The use of HALEU (high enrichment and low enrichment uranium) is unique in that it takes advantage of already used nuclear fuel that has been discarded by large processing facilities, which often only use around 50% of the power potential of their core material Previously replacing it, Oklo, which launched in 2013 and debuted with the Aurora plant project in fall 2019, aims to recover 90-100% of the energy available within the fuel, using fast fission and fast reactors.

“We are using the same physical reactions, we are using fission, but almost everything we are trying to do is completely different from the industry, historically,” Caroline Cochran said    in a telephone interview with Hyperallergic. The microreactor and Oklo plant do not require water or a lot of land, and the small-scale footprint improves the ability to meet the energy needs of communities in remote locations, such as small Alaskan cities, but perhaps not just their needs. of energy. The Aurora plant also represents an evolution in the aesthetics of nuclear design, with Oklo’s conscious effort to make its power station accessible and attractive to the surrounding community.

The A-shaped plant shape is strong, weather resistant, and makes good use of sun angles for a variety of panels.

“We have been thinking a lot about how to meet their needs further, mainly to provide electricity, but how can we also be a meeting point?” Cochran said. “A town hall, a garden, an indoor pool, during the moments in Alaska when people don’t exercise much or don’t have access to fresh vegetables? That kind of things. How can the building itself be iconic and recognizable, but also take on the flavor of the available areas?

The company employed  Gensler  to focus on their vision of the structure, and decided on an A-frame structure that brings together various cultural references, practical considerations, and space efficiencies for Aurora. The team was inspired by structures including the  Cadet Chapel of  the  United States Air Force Academy  , and comments on the design have compared the smooth, domed triangular construction to a Star Wars building, a cathedral, a Swiss chalet. … and even some less elevated notions.

“One person thought they were being rude to us when comparing it to an IHOP,” said Cochran, “but I think it’s kind of interesting, the different opinions of what it reminds them of, and I’d say it’s a good thing.” . We were trying to think about the community aspects that we hope to develop together with them, and these will vary by site. ”

The mid-century feel of design is a fitting nod to the roots of the nuclear aesthetic of the atomic age.

In addition to mid-century aesthetics referencing the original era of nuclear design, A-racks are the strongest lattice construction, and therefore ideal for housing and protecting the working aspects of the power plant, including the supporting cranes that move the jobs inside the plant, but the angle of the sides also lines up well with the solar array that will be attached to the energy processing. In high snow and low light latitudes like Alaska, the angle of the A-frame roof throws snow and maximizes exposure to sunlight. But Oklo also has more fancy ideas for the panels, hoping to employ  Sistine Solar  in implementing custom solar panel designs, including one commissioned by the artist. Forest Stearns  for Aurora design, which creates a reflection of the Alaskan sky touched by Aurora Borealis.

Coming soon … Aurora lights the way for new approaches to nuclear power and design.

Everything about Oklo, including the company name, which refers to the Oklo region of the Gabon state in Central Africa, where  nuclear fission is a natural feature  of the prehistoric landscape, indicates that it is a company that thinks very holistically. on the role of nuclear energy. it plays in human society, in nature and in the universe. These nuclear innovators look to a future where people stop for a cup of coffee at their local power plant (radiation dose not included) before using that energy potential for deep space exploration. That’s a lot of weight on the shoulders of an A-frame structure, but for now, Oklo projects a healthy glow of confidence and potential in the quick-fission design and deployment.

autor :

Small unmanned aerial systems (sUAS) technology continues to provide global organizations with new solutions for inventory, delivery, and surveillance. And as those capabilities expand into new business and consumer applications, so must security providers ensure that the increase in sUAS traffic is monitored, and any uncooperative or threatening sUAS are identified and addressed before they cause disruption, damage, or harm to people.

Introducing DroneTracker 4.1, Providing Advanced Radar & PTZ Camera Integration for sUAS Detection & Threat Mitigation

Dedrone today is introducing DroneTracker 4.1, building upon the success of our foundational software platform to provide critical advances for security providers to detect and act upon drone threats. DroneTracker 4.1 delivers Dedrone customers upgraded core components that address the growing and evolving threat of unwanted or uncooperative sUAS in our airspace.

 

DroneTracker 4.1 offers eight critical updates to core platform components and new features, including:

1. ADVANCED RADAR INTEGRATION

Dedrone provides an open-systems architecture, which allows our customers to select the sensor technologies which best fit their individual needs and problem set. The core of any drone detection system starts with RF sensors, which detect drones on the basis of their radio signals.


However, drones may fly autonomously and follow a pre-programmed route, making them nearly invisible to RF sensors. Organizations such as airports and militaries have to protect larger areas, and radar systems, with their long-range detection capabilities, may be helpful. DroneTracker 4.1 provides interfaces for radar systems from selected technology partners.

2. AUTOMATIC VERIFICATION BY PTZ CAMERAS

For organizations that require visual verification of a drone, cameras may need to be added to a counter-drone technology platform. DroneTracker 4.1 features an intelligent sensor fusion technology which enables PTZ cameras to automatically verify radar detection data. DroneTracker 4.1 automatically fuses the data from different sensors, including radar, PTZ cameras, and RF, to provide a clear understanding of airspace activity.

3. NEW CLASSIFICATION OPTIONS FOR ORGANIZATIONS WITH ACTIVE SUAS PROGRAMS

As more organizations bring sUAS to work, DroneTracker 4.1 now enables security providers to focus on only those alerts that need intervention – an important step towards managing commercial drones activity. New classifications include “friend” for sUAS that are recognized or a part of an organization’s sUAS program, “foe” for any unwanted or uncooperative sUAS, and “ignore” to shut off any alerts that may not need further investigation.

4. THERMAL, INFRARED SUAS DETECTION VIA HIGH-PERFORMANCE PTZ CAMERAS

Supporting the latest advancements in radar and PTZ technology, DroneTracker 4.1 now provides accurate visual verification of sUAS in low-light environments through thermal and infrared detection. Depending on the model, PTZ cameras can visually record and track drones at distances of several kilometers, even in adverse weather conditions, so that security teams retain a maximum overview of drone activities in their airspace at all times.

5. STABILIZED DRONE TRACKING IN LIVE FEED & RECORDINGS

When PTZ cameras are integrated into DroneTracker, customers are able to view a feed of the flight. DroneTracker 4.1 features new updates to our AI-based video analysis feature, which includes an advanced and proprietary sUAS recognition algorithm.

6. PTZ CONTROL VIA SEPARATE DASHBOARD

DroneTracker 4.1 has an extra cropped view for a better overview and control of visual detection with PTZ cameras. A PTZ operator can use DroneTracker 4.1’s PTZ dashboard to connect to different cameras across a single installation, operate them intuitively and orientate themselves using a new, interactive map. In addition, users can save and mark selected images or video recordings with detected drones for post-event analysis.

7. CONTINUOUS UPGRADES TO PROPRIETARY SUAS SIGNATURE DATABASE, DRONEDNA

Detection accuracy of sensors relies on known drone signatures in DroneTracker’s proprietary database, DroneDNA. DroneDNA provides specific information on the exact type of drone, helping immensely to reduce the false-positive and false-negative detection rate. DroneTracker 4.1 comes with the most DroneDNA updates of any software upgrade, and now provides users with automated monthly updates of DroneDNA.

8. UPGRADED USER EXPERIENCE FOR COORDINATED INCIDENT RESPONSE

The re-designed and enhanced home screen improves user experience to ensure a rapid threat assessment and coordinated incident response. DroneTracker 4.1’s improved drone path accuracy during the alert enables security teams to deploy appropriate, timely, and effective countermeasures.

Since Dedrone’s establishment in 2014, security organizations around the world have seen laws about drone activity change, new technologies being introduced, and significant threats to their airspace emerge, including drone attacks at oil pipelines, correctional facilities, and continued interruptions at airports, public events, and over military installations. DroneTracker continues to provide reliable detection data, and intuitive analytics tools such as heatmaps and automated reporting, for security professionals to understand drone activity and protect critical assets.

For more information on how you can access DroneTracker 4.1, and the Dedrone counter-drone technology platform, contact us here.

The professional thermographic smartphone module -FLIR-ONE-Pro

With four times more thermal resolution enhancement and VividIR ™ image processing, FLIR ONE Pro lets you see in more detail when you need it most.

The professional thermographic smartphone module

DETAIL OF IMAGE AND CLARITY

FLIR-ONE-Pro

EXTENDED MEASUREMENT
Measure temperatures between -20 and 400 ° C (-4 and 752 ° F) with up to three spot temperature meters and six temperature regions of interest.

RESISTANCE FOR THE WORKPLACE

Designed to ease the toughness of everyday work, the FLIR ONE Pro is rated to withstand a 1.8 meter drop and is built to last.

ESPECIFICACIONES
DESCRIPCIÓN GENERAL
Precisión
±3 °C o ±5 %, típico Porcentaje de la diferencia entre la temperatura ambiente y de la escena. Se aplica 60 segundos tras el inicio cuando la unidad está entre 15 y 35 °C y la escena está entre 5 y 120 °C.
Temperatura no operativa
De -20 a 60 °C (de -4 a 140 °F)
Rango dinámico de escena
De -20 a 400 °C, de -4 a 752 °F
Medidor puntual
OFF / °C / °F. Resolución 0,1 °C / 0,1 °F
Peso
36,5 g
Dimensiones (Al. × An. × Pr.)
68 × 34 × 14 mm (2,7 × 1,3 × 0,6″)
Teléfono
iOS
ALIMENTACIÓN
Tiempo de carga de la batería
40 min
Duración de la batería
Aproximadamente 1 h
APLICACIÓN
Distancia MSX ajustable
De 0,3 m al infinito1
Monitor de carga de la batería
Del 0 al 100 %
Modos de captura
Vídeo, imagen fija, lapso de tiempo
Formatos de archivo
Imágenes fijas – jpeg radiométrico
Paleta
Gray (white hot), Hottest, Coldest, Iron, Rainbow, Contrast, Arctic, Lava y Wheel.
Visualización/captura de vídeo e imagen fija
Guardado como 1440 × 1080
CONEXIONES Y COMUNICACIONES
Carga
USB-C hembra (5 V/1 A)
Vídeo
Lightning macho
CONFORMIDAD Y CERTIFICACIONES
Certificaciones
MFi (versión iOS), RoHS, CE/FCC, CEC-BC, EN61233
GENERACIÓN DE IMÁGENES Y ÓPTICA
Enfoque
Fijo de 15 cm al infinito
Frecuencia de imagen
8,7 Hz
Descripción general
Cámaras visuales y térmicas con MSX
HFOV/VFOV
55° ±1° / 43° ±1°
Obturador
Automático/manual
Resolución térmica
160 × 120
Sensor térmico
Tamaño de píxel 12 µm, de 8 a 14 µm de rango espectral
Resolución visual
1440 × 1080
MEDIOAMBIENTAL Y APROBACIONES
Ajustes de emisividad
Mate: 95 %, semimate: 80 %, semibrillante: 60 %, brillante: 30 %
Golpes
Caída desde 1,8 m
Temperatura operativa
De 0 a 35 °C (de 32 a 95 °F), carga de batería 0 a 30 °C (de 32 a 86 °F)
RADIOMETRÍA
Sensibilidad térmica [MRDT]
150 mK