Martime Product

Oil Spills in Canada’s Water: Available Technologies for Monitoring and Mitigating their Effects

Oil spills are a serious threat to the marine environment, and Canada’s extensive coastline makes it particularly vulnerable to such incidents. These spills can have long-lasting consequences, including damage to ecosystems, marine life, and human health. Therefore, it is crucial to have effective technologies to monitor oil spills and take prompt action to mitigate their effects. 

Here are some of the available technologies for monitoring oil spills in Canada’s water: 

  1. Satellite Imagery: Satellite imagery is one of the most effective ways to detect oil spills in the ocean. This technology uses high-resolution images to identify oil slicks and other signs of an oil spill. However, satellite imagery is expensive and may not provide real-time information. 
  2. Aerial Surveys: Aerial surveys are another way to detect oil spills in the ocean. This technology involves flying over the affected area to identify signs of an oil spill. However, aerial surveys are weather-dependent and expensive to conduct. 
  3. Remote Sensing: Remote sensing uses a combination of satellite imagery and aerial surveys to identify oil spills. This technology can provide real-time information about the location and size of the spill. However, it is also expensive and may not be as effective in identifying smaller spills. 
  4. In-Situ Sensors: In-situ sensors are devices that can detect oil spills in the water. These sensors can be deployed on buoys, floating platforms, or other structures to provide real-time information about the spill. However, in-situ sensors may not be effective in detecting spills in rough sea conditions or areas with high wave heights. 
  5. Mounted Sensors on Sea Vessels: Mounted sensors on sea vessels can also detect oil spills in the water. This technology involves installing sensors on the hull of the vessel to detect changes in the water’s temperature, salinity, or other parameters that may indicate an oil spill. However, this technology may be limited by the availability of vessels equipped with sensors. 

While these technologies can be effective in monitoring oil spills, they also have their limitations. For example, satellite imagery and aerial surveys may not be able to detect smaller spills, and in-situ sensors may not work in rough sea conditions or areas with high wave heights. Additionally, these technologies can be expensive to deploy on a large scale. 

One potential solution is to use a combination of technologies, such as buoys equipped with sensors and mounted sensors on sea vessels. This approach can provide real-time information about the location and size of the spill, allowing authorities to take prompt action. Moreover, this technology can be deployed in areas where the risk of oil spills is high, allowing for better preparedness in the event of an incident. 

To summarize, oil spills in Canada’s water are a significant environmental concern that requires immediate attention. While there are several technologies available for monitoring oil spills, they have their advantages and disadvantages. Combining multiple technologies such as buoys equipped with sensors and mounted sensors on sea vessels could be a convincing approach to prevent oil spills and mitigate their effects. However, more research is needed to overcome the limitations of these technologies and make them more cost-effective for widespread deployment.

Sensyn, a leading technology company, is actively working to develop the proposed technology of using buoys equipped with sensors and mounted sensors on sea vessels for monitoring oil spills in Canada’s water. The company is investing in research and development to overcome the limitations of existing technologies and make this approach more cost-effective for widespread deployment. Sensyn is committed to providing innovative solutions to protect the marine environment and prevent oil spills, and its work in this area is an important step towards achieving this goal.

MilestoneSensyn21

Sensyn Inc.’s Milestone

Our commercialization process is divided into three main phases: (1) market research and concept development (MVT and MVP), (2) product development and testing, and (3) production and market launch. The first phase supported us to secure our first round of financing. Our MVP is already developed and tested in both laboratory settings and in simulated operational environments. The product development phase is continuing to secure the second round of financing. The third phase will be spent applying for production plan, quality assurance, R&D, procurement, production run and market launch. It will not take us more than three years to gain our market share.

Gateway Rendered 16-cropped

What is a gateway?

The gateways in our leak detection network guarantee the reliable connection between the detectors (source of data); deployed in the working environment, and the end user (control room). They are radio modules that route user traffic. As essential Internet of Things (IoT)elements, they enhance network security and reduce implementation costs. We have tailored standard gateway technology to ensure minimal service disruptions, maximum affordability, and scalability. Each gateway can support up to 1000 sensor nodes.

Terrestrial IoT System

Our product is an IoT device.

In our first prototype, we designed it primarily to support LoRaWAN so that remote areas can be covered. We can, however, convert our product to General Packet Radio Service (GPRS), Global System for Mobile Communications (GSM), Narrow Band Internet of Things (NB-IoT), or Low Earth Orbit satellite constellations if the customer wishes to integrate it with their existing monitoring systems.

PrototypeSch1-1

Our second prototype is ready.

We have developed the major electronic and sensing components necessary to manufacture our first functional prototype. The Oilrovesensor node is now ready for deployment for simulated and field testing. Our prototype provides us with support not only for further market discovery, but for improving our manufacturing process for mass production and improving product consistency, reproducibility, robustness, and leak coverage. The sensor node is an internet of things (IoT) device for remote monitoring while being cost-effective, rapidly responding, and position trackable.