NEUVATEK provides turnkey embedded software development solutions including firmware development, embedded software and hardware testing, and integration with third-party systems.
Our embedded software engineers have been involved in several embedded system design and programming from small to large non-computer device with integrated software based on
microcontrollers and microprocessors for performing a special function or a limited set of functions. NEUVATEK firmware development team benefits from shared libraries for
different platforms and communications backbones, neural control, digital signal processing, image processing, motion control, sequential logic, continuous logic,
3D navigation as well as encryption and encoding/decoding.
While always offering custom made solutions to meet our clients’ requirements and exceed their expectations, NEUVATEK firmware development team benefits from a library of reusable components including
libraries for different platforms and communication backbones, neural control, digital signal processing, image processing, motion control, sequential logic, continuous
logic, 3D navigation, encryption, encoding/decoding…
NEUVATEK management invests in the artificial intelligence
coupled with the virtual reality to offer genuine solutions aligned with the future. For this global partnerships made
with several main players in the states and Germany.
| Technology | Experience |
|---|---|
| Programming Languages |
C and C++ languages which have been popular for developing software embedded into a hardware chip. Their core benefits are speed, the ability to access low-level system components and little memory consumed by the compiled programs.
C# is derived from the C family as a combination of object-oriented and structured programming. It is also a good option for embedded and IoT solutions knowing that programs written in C# can be compatible with different architectures. Assembly language is widely used for low-resource systems as it directly translates code into machine code, which hardware can easily interpret. The language is fast and memory-efficient. Java is used to create outstanding programs for embedded systems as well. Leveraging its powerful libraries and the Java Virtual Machine (JVM), developers can write portable applications compatible with different types of hardware. Python has been gaining momentum as the tool for computer science and embedded computing. It is concise and readable, which streamlines the app development process. Leveraging artificial intelligence algorithms, Python can gather, store and analyze tons of data from real-time embedded systems. The list of suitable languages can be continued with JavaScript, Verilog, Embedded C++ and more. |
| CPU Architecture | RISC, Advanced RISC ARM Cortex-A, ARM Cortex-R, ARM Cortex-Ethos, ARM Cortex-SecureCore, ARM Cortex-Neoverse, MIPS, DSP |
| Applications | Dedicated Operating Systems, Standard Operating Systems, State Machines, Neural Network, Fuzzy Logic |
| Wired Communication | USB 2.0, USB 3.0, USB 3.1 USB-C, Ethernet, PoE, RS-485, RS-422, RS-232, CAN, I2C, I2S, SPI, Firewire, KNX |
| Wireless Communication | Cellular 2G (GSM TDMA/FDMA), 3G (CDMA), 4G LTE (OFDMA), IEEE 802.11 a/b/g/n/ac - WiFi 2.4 GHz, WiFi 5.0 GHz, Bluetooth, Bluetooth Low Energy 5.0/5.2, IEEE 802.15.4 2.4 GHz, ZigBee |
| IoT Communication | LTE CAT M1, LTE NBIoT, LoRa, SigFox |
| Industrial Communication | Industrial Ethernet, PROFINET, PROFIBUS, MODBUS, CANBUS, EtherCAT, HART, DeviceNet, BACNET, LonWorks |
| High Speed & Audio & Video Signaling | TMDS, LVDS, S/PDIF |
| Motor Control | DC, AC Synchronous and Asynchronous, Servomotors, Stepper Motor, Linear AC Motors, Linear DC Motors |
| Sensing Technology | MEMS Accelerometers, Magnetometers, Gyroscopes, 9 Axis IMU, Temperature, Humidity, AMR, GMR, TMR, Chemical Impedance, 1D, 2D, 3D Camera, RADAR, LIDAR, SONAR, Flow, Pressure, Force |
Since software is written for handling a single task on a certain device, its performance is usually close to perfect, which is crucial for end-users
In comparison with regular computers, embedded systems are much smaller in size, which makes them compact, portable and convenient for mass production
Most devices require little power for operations, which means that they can be applied in various locations and work in complicated circumstances; it also means resource usage optimization.
Wireless connection can be established through Wi-Fi, Ethernet, Edge, LoRa, a Bluetooth bridge, and other channels. Leaving apart their pros and cons, the fact is each of them is created with a different technology stack. Several protocols can be used: UDP, COAP, TCP/IP, etc. or a few protocols at the same time plus TLS and/or MQTT on top of them.
With IoT devices, the updates must be delivered and executed on their own without user’s intervention. NEUVATEK team fulfills the following tasks: generate a firmware update, save it to the devices, validate that they are delivered from a trusted source, run the update on the devices at appropriate time, and be ready to roll back the update if there is an issue.
Giving the developed product the capability to perform complex tasks with faster response, fewer errors, accurate results and more versatility than standard programming
Real-time response and stable behavior of the equipment under all circumstances are in many cases lifesaving, and NEUVATEK is in charge of this functionality. Programs are designed in such a way that devices work in a stable fashion within the prescribed resources and regardless of the changing environments.
According to market demands, devices should become smaller but more powerful. For NEUVATEK design team this is an increasingly complicated task — to pack more computing capabilities into a smaller piece of hardware.
In the digital world where any object connected to the internet can be exposed to cyberattacks, the security of personal data has become a hot issue. Embedded security is among the greatest challenges for our team as more strict requirements are imposed regarding the QA and testing expertise, as well as the security mechanisms for protecting built-in solutions.