MASTER-SLAVE STREETLIGHTS

UV, Laser, 5G, Wi-Fi, Bluetooth, NFC, ZigBee, GNSS, LTE CAT-M1, NB-IoT, LoRa, SigFox, LED...

Have you thought about those odd purple lights...?

"In the case of white LED light, it is estimated to be five times more effective at suppressing melatonin at night than the high-pressure sodium lamps (given the same light output) which have been the mainstay of street lighting for decades. Melatonin suppression is a marker of circadian disruption, which includes disrupted sleep." (American Medical Association warns of health and safety problems from ‘white’ LED streetlights)

https://www.greenbaypressgazette.com/story/news/local/2022/02/08/why-some-streelights-appear-purple-northeastern-and-central-wisconsin/9225015002/

https://www.1011now.com/2021/09/22/purple-lights-popping-up-lincoln-caused-by-led-malfunction/

https://www.wfla.com/news/local-news/why-are-some-street-lights-in-tampa-tinted-purple-teco-explains/

https://www.cbsnews.com/minnesota/news/purple-street-lights-apple-valley/

http://www.abilene-rc.com/news/some-abilene-streetlights-have-turned-purple-here-is-evergy-s-explanation-for-the-color-change/article_d5f55584-58ff-11ec-ab8d-bb745a683c80.html

https://www.instructables.com/Intelligent-Street-Light-Using-LoRa/

This prototype works on Master-slave configuration, where each street light acts as slave, and LoRa Gateway acts as the master. As Lora gateway has longer range compared to other communication services like wifi, Bluetooth, NFC etc.

Though GSM has the longer range it includes subscription charges which are not there is LoRa (Free of charge)and also LoRa consumes very less amount of power during operation. Master is connected to the internet so that user can remotely monitor street lights. So Large number of streetlights can be connected and controlled from the Master gateway.

https://www.manufacturer.lighting/info/83/ - Street Lighting Meets the Internet of Things (IoT)
The Internet of Things (IoT) is a network of uniquely identifiable physical objects (things) which are internetworked to achieve control and information exchange via an information carrier based on standard communication protocols. IoT allows a wide variety of devices to create seamless communication and contextual interactions remotely across the existing network infrastructure. IoT enables all physical objects to act as uniquely addressable nodes and adds network functions to enhance and extend their main functionality. This feature introduces tremendous new capabilities and create a number of opportunities by providing controllable and even personalized interoperability and manageability in today's Smart City and Smart Energy Management Systems.

Adding IoT connectivity to streetlights quantifies the benefits of sustainability development. The combination of network communicating, intelligent sensing, and sophisticated data analysis capabilities allow municipal authorities to monitor and dynamically control the street lighting systems. The IoT based lighting technology resolves the scalability challenges to manage a large number of streetlight facilities by aggregating and act on large amounts of data generated by IoT street lights to improve urban lighting services, maximize energy savings and reduce operation costs. As such, IoT networking technology creates a practical opportunity for more direct integration of LED street lighting into computer-based systems

The Internet of Things goes beyond powerful machine-to-machine (M2M) communications in street lighting management. A large number of applications can be put into practice within a broader context of the extensive development of smart city initiatives across the world. Smart street lighting systems can be implemented as a critical component in the smart city infrastructures and provide extended capabilities such as public safety monitoring, traffic management, weather monitoring, environmental protection, smart parking, WiFi accessing, Utility metering and leakage sensing, and voice broadcasting, etc. - or this"

Architecture for the Internet of Things Street Lighting
The IoT based street lighting can be defined as internetworked digital lighting systems that utilize individual lights to as network node assemblies to receive, collect and transmit data. The IoT consists of three-layer hierarchical model. The lower layer is composed by end nodes installed on streetlights to perform sensing and measurements. The second layer of the hierarchy provides connectivity to both remote servers of control systems and the end nodes. The highest level of the hierarchy is the application layer that consists of the remote-control system or server, whose tasks include optimizing management and efficiency of street lighting systems and perform other applicable strategies.

Many different nodes may be employed depending on the lighting system features to facilitate the monitoring and control of the street light performance and other IoT features. Such network nodes include light dependent resistors (LDRs), passive infrared (PIR) sensors, current sensors, hall effect sensors, and relays. An LDR or a photo resistor is an input transducer that converts brightness (light) to resistance. Light dependent resistors operate on the principle of photo conductivity to adjust the brightness of a street light in different weather conditions. PIR sensors are used to detect the density or flow of traffic by defining the infrared wavelengths enters through the front of the sensor. A realtime clock circuit is installed to provide time and day information. A temperature sensor records local system temperature. A current sensor is used to detect and convert electric current (AC or DC) to a measurable output voltage. Relays are remote control switches for on/off activation.

The analog data collected by the network nodes is converted in digital form, processed by second layer of IoT architecture, which is typically a microcontroller that can be an embedded processor with associated circuitry, application specific integrated circuits (ASICs), or field-programmable gate arrays (FPGAs).LED driversoften interface to intelligent microcontrollers to execute allocated instructions such asadaptive dimming control. The microcontroller is further interfaced with communications modules serving as gateways to provide connectivity between the remote control system, the communication modules and the street lights.

IoT Street Lighting Network Communication
IoT streetlight systems use a combination of long-, medium- and short-range networks communication technologies. There are three types of communication systems available for implementing network connectivity in an intelligent streetlight system: 1) Power line communications (PLC) that modulate communication signals over existing power distribution networks, 2) Broadband power line (BPL) network in which the data signals are modulated onto carriers in the megahertz range and higher, 3)Wireless communicationimplemented with the utilization of radio frequency modules.

Wireless technologyplays a critical role in the implementation of IoT networked intelligent street lighting systems. Since there's a tremendous cost in cabling a vast number of sensors, wireless communication is the sole solution to the deployment of flexible sensor networks over wide or inaccessible areas. In the concept of IoT, low-power standard communication is preferred for interconnection among many smart devices. Wireless mesh networking are becoming increasingly popular for IoT infrastructure application to connect devices to each other, and to cloud-based services. ZigBee is a robust wireless mesh networking standard based on the IEEE 802.1 5.4 standard for wireless personal area networks (WPANs). ZigBee specifies high level communication protocols and provides high reliability and larger range with mesh networking. ZigBee implementation requires additional equipment such as a coordinator, router and ZigBee end-devices.

Other IoT-related wireless technologies include Wi-Fi, 6LoWPAN (an LWPAN standard specified to adapt IPv6 communication), Z-Wave, Bluetooth Low Energy, Wireless Sensor Networks (WSNs), Dash7 (a WSNs protocol for kilometer-distance range communication operating 433 MHz which means better penetration through walls than 2.4 GHz), Radio-Frequency Identification (RFID), and Near Field Communication (NFC), etc.

https://mysteriousuniverse.org/2018/05/5g-streetlights-may-be-causing-mysterious-ailments/

https://www.engadget.com/2018-01-10-wi-fiber-streetlights-ces-2018.html?guccounter=1&guce_referrer=aHR0cHM6Ly9kdWNrZHVja2dvLmNvbS8&guce_referrer_sig=AQAAAFu8tl_ZkRVj8Tst92mWeIPFqZlVDXYEKWDhtURyu0xGRIiP63RQ1lg35Qhi2cAhEfXaPWxJxSjQl1elzygdIJUKtRyqw38YxKfKuxrjMr2RG-O7fckntiBCO15oX1p_boFl6i8r_2aqq5i3pVm30iOBUaKKcwNuSk2JFlSAtNb3

Unfortunately, the system will also offer up an easy way to further the reach of our surveillance state, including a 4K camera and a two-way microphone and speaker. In addition, the company is pledging that the footage can be archived and searched, ensuring that Big Brother knows exactly where you are and when. But, on the upside, the system can be fitted out with gunshot sensors, air-quality monitors or even ZigBee controllers.

Wireless infrastructure will better enable machine-to-machine communication, or at least it could, depending on how it's implemented. In fact, that's the rule for all of these things: It all depends on how it's implemented, and the intentions of those who do.

https://www.eneltec-led.com/news/application-of-laser-for-high-brightness-street-lighting.html

Application of laser for high-brightness street lighting…

Why would you need laser or UV in the streetlights?

Could this be a reason? It is JUST A TECHNOLOGY:

https://pubs.acs.org/doi/pdf/10.1021/acs.jpclett.5b00120

“In 1996, the Nobel Prize for Chemistry went to the discoverers of Buckminsterfullerene; soccer-ball-shaped spheres of 60 joined carbon atoms that exhibit special physical properties colloquially called Buckyballs.

It was only a time before someone found a way to weaponize those, but in this case for the public good: Buckybombs. But these nanoscale explosives will target and eliminate cancer at the cellular level, triggering tiny explosions that kill cancer cells without affecting surrounding tissue.

Carbon nanotubes, close relatives of bucky-balls, are used already to treat cancer. They can be accumulated in cancer cells and heated up by a laser, which penetrates through surrounding tissues without affecting them, and targets carbon nanotubes directly. Modifying carbon nanotubes the same way as the buckybombs will make the cancer treatment more efficient - reducing the amount of treatment needed.”

https://link.springer.com/article/10.1007/s40846-018-0391-0

"The presence of microbubbles in the human body can be induced either through cavitation or exogenous introduction of bubbles. One of the effects of ultrasound is cavitation, or microbubble formation and collapse. Cavitation produces high pressures and temperatures, and microbubble expansion and then collapse close to cells can lead to cellular damage or hemorrhage in biological tissues."

https://www.sciencedirect.com/science/article/abs/pii/S0008622311008244

The use of UV light to trigger different processes involving graphene oxide sheets suspended in aqueous medium at room temperature has been investigated. These processes include (1) deoxygenation of the sheets in the absence of photocatalysts, reducing agents and stabilizers, (2) selective nucleation and growth of metal nanoparticles on the sheets to yield graphene-based hybrids and (3) decomposition of the dye molecule rhodamine B in the presence of only graphene oxide.

https://onlinelibrary.wiley.com/doi/epdf/10.1002/adma.202107843

Light-Controlled Nucleation and Shaping of Self-Assembling Nanocomposites

Controlling self-assembly of nanocomposites is a fundamental challenge with exciting implications for next-generation advanced functional materials. Precursors for composites can be generated photochemically, but limited insight in the underlying processes has hindered precise hands-on guidance. In this study, light-controlled nucleation and growth is demonstrated for self-assembling composites according to precise user-defined designs. Carbonate is generated photochemically with UV light to steer the precipitation of nanocomposites of barium carbonate nanocrystals and amorphous silica (BaCO3/SiO2). Using a custom-built optical setup, the self-assembly process is controlled by optimizing the photogeneration, diffusion, reaction, and precipitation of the carbonate species, using the radius and intensity of the UV-light irradiated area and reaction temperature. Exploiting this control, nucleation is induced and the contours and individual features of the growing composite are sculpted according to micrometer-defined light patterns. Moreover, moving light patterns are exploited to create a constant carbonate concentration at the growth front to draw lines of nanocomposites with constant width over millimeters with micrometer precision. Light-directed generation of local gradients opens previously unimaginable opportunities for guiding self-assembly into functional materials.

Light controlled nucleation and growth. A) Optical microscopy time-laps series and SEM micrograph of the resulting single BaCO3/SiO2 coral-shaped composite by dynamically modulating the light intensity between a nucleation and growth regime, as indicated in the schematic above. Grey squares indicate the moments in time of the given time-lapse series. B) Optical microscopy time-laps series with corresponding light scheme, and SEM micrograph of light-controlled sequential nucleation of helical- and C) coral-shaped composite in preassigned locations, the yellow circles indicate the location of the UV light spots. D) SEM of the resulting ensemble of the helical- and coral-shaped composite. E) Optical microscopy photo of BaCO3/SiO2 coral shapes that are positioned in accordance to a hexagonal pattern of UV light spots (inset) that is projected using a photomask. F) SEM of the BaCO3/SiO2 coral shapes positioned in a light-controlled hexagonal pattern, with micrometer-sized CaCO3 crystals that are randomly positioned to lower the surface free energy of the quartz substrate for rapid nucleation inside the UV light spots.

Contouring and shaping of individual nanocomposites. All BaCO3/silica composites grow within the irradiated light area for A) triangular- and B) circular-, and C) cross-shaped pattern that is projected on the substrate (left column) as indicated by the yellow dotted line in the time-lapse (middle column) and is confirmed by SEM (right column). Precipitation follows the contours of the light pattern by curling up toward the irradiated area. Concave corners require an elevated reaction temperature of 40 °C. All scale bars represent 200 µm.

Dynamic light patterns for drawing composite lines. A) Schematic drawing and optical microscope time lapse series for i) rlight < rgrowth, ii) rlight > rgrowth, and iii) rlight ≈ rgrowth showing tapering, broadening, and growth with constant width respectively. The yellow circle indicates the position of the UV light spot (50 µm radius), the black solid and dashed line indicate the position of the growth front present and previous position respectively, and the white arrow indicate the shift of the growth front relative to the light spot. Red arrows indicate features on the substrate that illustrate the movement of the substrate relative to the light spot. B) Optical microscope photograph of the millimeter-sized nanocomposite directed for 47 h by the moving light beam grown with different rlight, resulting in a waving growth front until rlight ≈ rgrowth is found, where a constant local carbonate concentration results in a constant line width. The labels indicate the different regimes shown in (A)

Dynamic light patterns for drawing composite lines. A) Schematic drawing and optical microscope time lapse series for i) rlight < rgrowth, ii) rlight > rgrowth, and iii) rlight ≈ rgrowth showing tapering, broadening, and growth with constant width respectively. The yellow circle indicates the position of the UV light spot (50 µm radius), the black solid and dashed line indicate the position of the growth front present and previous position respectively, and the white arrow indicate the shift of the growth front relative to the light spot. Red arrows indicate features on the substrate that illustrate the movement of the substrate relative to the light spot. B) Optical microscope photograph of the millimeter-sized nanocomposite directed for 47 h by the moving light beam grown with different rlight, resulting in a waving growth front until rlight ≈ rgrowth is found, where a constant local carbonate concentration results in a constant line width. The labels indicate the different regimes shown in (A).

In summary, we here introduce light-controlled nucleation and shaping of self-assembling BaCO3/SiO2 nanocomposites.

This work is part of the Vernieuwingsimpuls Vidi research program “Shaping up materials” with project number 016.Vidi.189.083, which was partly financed by the Dutch Research Council (NWO).

https://www.nwo-i.nl/en/nwo-institutes-organisation/

https://www.nwo.nl/en

So, regarding these self-assembling injections, however they are called vaccines, for the Internet of Things, Bodies and Viruses, there are certain factors that affect the process of their self-assembly, such as UV light, ultrasound and so on.

https://www.sciencedirect.com/science/article/abs/pii/S0013935118306935?via%3Dihub "Our work shows that graphene can induce the misfolding of prion protein and may cause the potential risk to biosystems."

Definitely, one of the mechanisms of action of this nanotechnology and peptides (proteins) in addition to inducing acute oxidative stress with all its consequences, such as blood clotting, organ failure, strokes, heart failure, etc., is the AMYLOID PLAQUE FORMATION (strange clots found in the veins, arteries and organs) in the presence of quantum dots. These self-assembling structures grow under the influence of certain factors, including temperature, UV light, ultrasound, PH, EMF, etc.

THIS HAS TO STOP. IT IS NOT DONE FOR THE HEALTH OF THE PEOPLE. THE INFRASTRUCTURE IS TO CONNECT HUMANITY TO THE INTERNET OF BODIES, VIRUSES AND THINGS AND MORE.

AND IT IS EXTREMELY TOXIC AND DEADLY.