Sensor Integration, Connectivity Design, IoT Firmware, IoT Gateway, and Cloud Integration – All-in-one engineering team for IoT development from sensor to dashboard. Technical Consultation at no cost, NDA & IP protection, sensor to cloud solution.
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Every capability below is delivered by the same in-house team — hardware, firmware, and cloud, with no handoff gaps.
Development of sensor nodes and devices for IoT from concept through production.
Sensors and edge devices developed to provide precise analog or digital outputs.
Connectivity using Wi-Fi, Bluetooth Low Energy, LoRa WAN, or cellular.
Embedded low-power firmware for sensing, connectivity, and Over-The-Air updates.
Development of gateways connecting field sensors to cloud platforms over cellular or Wi-Fi.
Cloud and security engineering done together, not as an afterthought.
The connectivity, cloud, and hardware platforms our engineers use on every IoT project.
Sensor-to-cloud IoT development for industrial, agricultural, and infrastructure clients — across India including Mumbai, Thane, Pune, Bangalore, and Delhi NCR.
Asset condition monitoring and predictive maintenance sensor networks.
Sensor networks for soil, weather, and irrigation using LoRa WAN or cellular.
Sensor networks for smart metering and grid-side monitoring with telemetry capabilities.
Occupancy, HVAC, and energy sensor networks for facilities management.
Cold chain and asset monitoring using cellular and GPS enabled sensors.
Patient and equipment remote monitoring sensors for validated environments.
Inventory and environmental sensors for retail and warehousing applications.
Remote instrument monitoring in upstream and downstream operations.
Rhosigma builds IoT products for organizations operating in industrial automation, agriculture, energy, logistics, and smart infrastructure sectors.
Logos shown represent the industries and organization types Rhosigma works with, for illustrative reference only, and do not imply an existing client, partnership, or endorsement.
A documented, repeatable process used on every IoT engagement — so you always know where the project stands.
All deployment specifics, power consumption limitations, and data needs defined before design.
Architecture for sensors, connectivity, gateways, and the cloud developed together as one system.
Selection of MCU, sensors, and connectivity module according to the use case
Development of low-power embedded firmware for sensors, connectivity, and OTA firmware updates.
Data from the device securely uploaded to either AWS IoT, Azure IoT Hub, or custom backend.
Testing the product in a real-world environment to validate its range, battery life, and reliability.
Encrypted data transfer, secure booting, and authentications considered during security review.
Field deployment assistance and firmware maintenance after release.
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Expand any service to see the actual engineering work involved — description, benefits, deliverables, and where it applies.
Description: From concept we design connected products- from hardware and enclosure through firmware and connectivity so that your device functions as a single, cohesive system not a collection of parts wired together.
Description: We handle analog and digital sensor integration into edge devices, with signal conditioning, calibration and noise filtering built-in, so that reliable, clean data is relayed to the cloud.
Description: We select and integrate the appropriate connectivity for your device based on your power, range and data requirements and choose from Wi-Fi, Bluetooth Low Energy, LoRaWAN, NB-IoT, Zigbee, or Cellular.
Description: We provision devices to communicate over MQTT, CoAP or HTTP/REST to your chosen cloud platform (AWS IoT Core, Azure IoT Hub, Google Cloud IoT or custom back end) and set up a data pipeline that translates the raw device telemetry data into useful information.
Description: We write highly efficient, low-power embedded firmware which takes care of sensing, communication, power management and over-the-air firmware updates – tuned for longevity when batteries are the only source of power.
Description: We build gateway devices that collect data from field sensors using LoRa WAN, Zigbee or Modbus and relay it to the cloud over a Cellular or Wi-Fi backhaul.
Description: We build a device fleet management system that allows you to send over-the-air (OTA) firmware updates and bug fixes to deployed devices remotely, without costly truck rolls.
Most vendors specialize in either hardware or cloud and hand off the rest. We keep sensor, firmware, connectivity, and cloud under one roof, from Thane, Maharashtra.
One spec, one team of hardware, firmware, connectivity, and cloud specialists.
Our devices are designed for tough real-world use, not just for lab tests.
Firmware and hardware design tailored to battery-life limitations.
We do it all from sensor selection to cloud-based dashboard.
Standardized process and building blocks ensure faster development cycles.
Data encryption and authentication from the very first firmware version.
From one sensor trial to deployment of an entire fleet.
You will be the sole owner of source code, schematics, and technical documentation.
Choose the engagement model that fits your IoT product requirements, development stage, and project goals.
Best for clearly defined IoT requirements, deliverables, integrations, and development milestones.
A complete engineering team supporting your IoT product across hardware, firmware, connectivity, cloud, and application development.
Add specialized engineering support for sensors, gateways, protocols, cloud integration, or application development when needed.
Continuous support from connected-product design and prototyping through deployment, monitoring, and product improvements.
Representative examples of the kind of connected product work we take on.
Problem: a utility company had a need for a gateway that would collect data from many smart meters and transmit it to the cloud. Solution: we developed a gateway with Modbus to MQTT protocol conversion and cellular uplink with a local buffer of data. Effect: reliable data transmission despite cellular connection disruptions, providing centralized visibility into meter data without upgrading meters.
Problem: a manufacturing facility needed vibration and temperature monitoring distributed across the plant equipment with no pre-existing Wi-Fi coverage. Solution: we implemented LoRa WAN wireless sensor node devices transmitting their data to a central gateway and cloud dashboard. Effect: battery life of several years obtained despite no existing coverage throughout the plant, allowing to monitor equipment health without additional wiring.
Problem: our logistics client required real-time temperature tracking of its refrigerated fleet. Solution: we developed a set of cellular temperature loggers with a cloud dashboard. Effect: real-time visibility into cold chain breaches within the fleet.
We support connected products through prototype validation, component sourcing, production testing, firmware integration, device configuration, and manufacturing readiness.
Review components, sensors, connectivity modules, and other hardware requirements to improve availability, reliability, and production readiness.
Evaluate IoT hardware designs for manufacturability, assembly, enclosure integration, component placement, and production constraints.
Support prototype builds and pilot batches to identify hardware, firmware, connectivity, and assembly issues before volume production.
Validate sensors, connectivity, firmware, power performance, and device functionality using practical testing and inspection processes.
Support the transition to volume manufacturing and deployment with device configuration, firmware provisioning, documentation, and production assistance.
Internet of Things is a collection of hardware - sensors, actuators, and gateways that have network interfaces. These devices are connected and send/receive data. Typically, these data streams terminate on a cloud service where they can be viewed, processed, or acted upon remotely. Soil moisture sensor reporting over LoRa WAN, industrial vibrations monitor sending data to a dashboard, or a smart meter reporting its current consumption over cell are all considered IoT devices. Building a useful IoT device depends on getting these three layers working together properly - how you capture data on the hardware (hardware and sensing), get the data off the device (firmware and connectivity), and process the data into something that a human or system can use (cloud platform). Break any of these links in the chain and your IoT device doesn't work.
Questions we hear on every IoT scoping call — answered directly, without the brochure language.
This includes integration of sensor and edge devices; design of connectivity (Wi-Fi, BLE, LoRa WAN, cellular); development of firmware and gateways; integration of devices into your backend application and cloud service with OTA update support.
We develop devices designed for, and integrated using, Wi-Fi, Bluetooth Low Energy, LoRa WAN, NB-IoT, Zigbee and cellular (4G/5G) communication technologies, depending on each device's power budget and operational range.
Certainly! We have experience integrating IoT products with AWS IoT Core, Azure IoT Hub, Google Cloud IoT and your own backend systems using any combination of MQTT, CoAP, HTTP/REST.
A sensor node with standard, pre-developed communication modules can be designed in 6 to 10 weeks. A full IoT product with custom hardware, firmware, and Cloud integration, would likely take 3 to 6 months depending on the complexity of the solution.
Yes, Rhosigma can design and implement IoT gateways that will aggregate information from field devices (sensors using LoRa WAN, Zigbee, or Modbus, for example) and will forward this data to your chosen cloud services via a wired, Wi-Fi, or cellular (GSM, LTE) connection.
Security features for devices are implemented during the IoT firmware design process. This typically includes TLS/DTLS secured communication and authentication for devices, as well as secure boot. Device management systems are designed in a way so that secure OTA updates will work without security issues.