I have used CARTO for the last 12 years. I use CARTO for three-dimensional mapping of complex arrhythmias, and I am the mapper, the one responsible for producing the mapping for the industry. I set up CARTO in the operating room, wait for the patient to enter the room, connect the equipment to the patient, sit at the workstation helping the doctor with the production of the three-dimensional mapping, and after the procedure is finished, I disconnect the equipment from the patient, produce the mapping for the doctor to include in the report, and turn off the equipment and store this equipment in the equipment room. I help the doctor in the production of the three-dimensional mapping with CARTO, and I keep telling the doctor if there is any part of the heart left to be mapped that has not yet been mapped and I point out to him where the arrhythmia seems to come from, so that the ablation can take place and the problem, the arrhythmia, is resolved.
In my project, I used CARTO to create a choropleth map showing population density by administrative area. I imported a CSV file with demographic data, joined it with geographic boundaries, and used CARTO's styling option to visualize the difference across regions. I also experimented with spatial filtering and basic aggregation to explore patterns in the data. It was a good way to understand how CARTO handles data visualization and spatial analysis. My main use case was exploring CARTO for spatial data visualization and basic geophysical analysis.
During my live project, I used CARTO as an interface to access GeoJSON files and other geospatial data while analyzing very different aspects, including population, satellite imagery, and identifying patterns based on geographical data. My main use case for CARTO is primarily that functionality. Additionally, CARTO helped us with citing existing data about patterns in a specific area. To map it out and visualize it, CARTO was of great help, and linking it with different workforces and different platforms made it even more useful.
CARTO is used for ablations, mapping, and EP studies. In the case of ablations, such as atrial fibrillations, VT ablations, PVC ablations, and SVTs, every case that requires mapping and then intervention utilizes this main component in my current facility. For example, in an atrial fibrillation procedure, you gain access and need ICE guidance, which CARTO provides. The ICE catheter helps perform a quick map of the right atrium before going transseptal. When that map is complete, all the catheters provided are used, including ablation, the decanav catheter, and ICE. After the transseptal, which is an essential part of the procedure because the left side of the heart must be ablated, the team maps, detects where the arrhythmia is originating from and its rate, and then ablates the pulmonary veins. After those veins are ablated, the procedure is essentially complete.
CARTO is a geospatial analysis platform that empowers organizations to extract insights from location data, enabling data-driven decisions with ease. CARTO facilitates spatial analysis by allowing users to visualize geographic data through maps and dashboards. Its user-friendly interface simplifies the process of deriving insights, whereas real-time analytics and integrations allow seamless data handling. Widely recognized in tech circles, CARTO enhances the ability of businesses to make...
I have used CARTO for the last 12 years. I use CARTO for three-dimensional mapping of complex arrhythmias, and I am the mapper, the one responsible for producing the mapping for the industry. I set up CARTO in the operating room, wait for the patient to enter the room, connect the equipment to the patient, sit at the workstation helping the doctor with the production of the three-dimensional mapping, and after the procedure is finished, I disconnect the equipment from the patient, produce the mapping for the doctor to include in the report, and turn off the equipment and store this equipment in the equipment room. I help the doctor in the production of the three-dimensional mapping with CARTO, and I keep telling the doctor if there is any part of the heart left to be mapped that has not yet been mapped and I point out to him where the arrhythmia seems to come from, so that the ablation can take place and the problem, the arrhythmia, is resolved.
In my project, I used CARTO to create a choropleth map showing population density by administrative area. I imported a CSV file with demographic data, joined it with geographic boundaries, and used CARTO's styling option to visualize the difference across regions. I also experimented with spatial filtering and basic aggregation to explore patterns in the data. It was a good way to understand how CARTO handles data visualization and spatial analysis. My main use case was exploring CARTO for spatial data visualization and basic geophysical analysis.
My main use case for CARTO includes SVTs and PVCs, specifically for ablations. We use CARTO to map arrhythmias within the heart during ablations.
During my live project, I used CARTO as an interface to access GeoJSON files and other geospatial data while analyzing very different aspects, including population, satellite imagery, and identifying patterns based on geographical data. My main use case for CARTO is primarily that functionality. Additionally, CARTO helped us with citing existing data about patterns in a specific area. To map it out and visualize it, CARTO was of great help, and linking it with different workforces and different platforms made it even more useful.
CARTO is used for ablations, mapping, and EP studies. In the case of ablations, such as atrial fibrillations, VT ablations, PVC ablations, and SVTs, every case that requires mapping and then intervention utilizes this main component in my current facility. For example, in an atrial fibrillation procedure, you gain access and need ICE guidance, which CARTO provides. The ICE catheter helps perform a quick map of the right atrium before going transseptal. When that map is complete, all the catheters provided are used, including ablation, the decanav catheter, and ICE. After the transseptal, which is an essential part of the procedure because the left side of the heart must be ablated, the team maps, detects where the arrhythmia is originating from and its rate, and then ablates the pulmonary veins. After those veins are ablated, the procedure is essentially complete.