Lakshya Software Technologies Pvt. Ltd.’s Post

🚀 How ASN Plus Helps Companies with Custom Electronics Development Since 2014, ASN Plus has specialized in custom electronics development, firmware, and embedded software. We have completed dozens of successful projects. How do we make it happen? 🔍 Needs Analysis: We start with a thorough analysis of the client's needs and propose an optimal, tailored solution. ⚙️ Implementation: We handle electronics design, firmware and software development, prototyping, testing, and preparation for mass production. 🌐 Support: We assist with certification, production launch, and provide support throughout the product’s entire lifecycle. Additionally, we help with updates based on market or customer needs, offer servicing, support, and much more. 💡 Comprehensive Services: We offer technological know-how and extensive experience throughout the entire product lifecycle, allowing you to focus on your core business. #ASNPlus #CustomDevelopment #Electronics #Innovation #ProductDevelopment #EmbeddedSystems

Creating Security lock using LCD , KeyPad and Atmega32 Microcontroller #C #Embedded Systems #Embedded software

What is the Cost to Develop an Electronic Product? Discover the varying costs involved in electronic product development, from initial concept to electronics design, software development and final industrialisation. #electronicsdesign #productdevelopment #electronicsengineering https://lnkd.in/gY23jZyz

Embedded Software Powers Our Everyday Devices Unseen by Most Users: Embedded software is the unsung hero of our daily lives, powering many of our everyday devices. From the digital display in your microwave to the firmware in your smart thermostat, embedded software is the unseen power that makes these devices smart, connected, and responsive. Without it, they would be nothing more than inanimate objects.

Hardware and software development Cost Not just in terms of Budget, but also engineering time Check out our game changing Microcontroller development kit providing a pre-developed Hardware/Software combination that's easy to integrate in your system to enhance the UI/UX of your final application It means idea validation with a quick proof of concept, and development of software for a final prototype, saving up to 6 months’ worth of time and financial resource in hardware development and driver integration Welcome to DRAGONEYE Link in the comments 👇 #hmi #engineering #stm32 #microcontroller #anderselectronics

Our firmware setup works as the low-level control software for the modules included in PowerDesign. This means that when you pick a module connected to an MCU module, its functions have already been tested. We also have static libraries ready to make embedded engineering easier. #PowerBeam #TechDevelopment #Innovation #PowerDesign

The ingenuity behind everyday devices! Embedded systems software and hardware design is a fascinating field that underlies many of the technologies we rely on daily. While challenges arise from tight resource constraints, real-time demands, and security concerns, these are precisely what engineers love to solve! #EngineeringProblemSolving #EmbeddedSystems 1. What's the most impressive embedded system you've ever encountered? 2. How do you think embedded systems will evolve in the future? 3. What are some of the challenges you've faced in embedded systems development, and how did you overcome them?

#Boardbringup #powerontesting #testinginterface Board bring-up typically refers to the process of bringing up a new hardware board to a functional state. This involves tasks such as powering up the board, testing the basic functionalities, ensuring that all components are working correctly, and initializing the hardware interfaces. The process can vary significantly depending on the complexity of the board and the specific requirements of the project. It often involves tasks such as: #Powerontesting: Ensuring that the board powers up correctly and that all power supplies are functioning as expected. #Initialhardwaretesting: Verifying that essential hardware components such as the CPU, memory, and peripheral interfaces are working properly. Bootloader installation: Installing and configuring a bootloader to enable the board to load and run software. #BSPconfiguration: Setting up the necessary software components to support the board's hardware, including device drivers and low-level initialization code. #Testinginterfaces: Verifying the functionality of various hardware interfaces such as UART, SPI, I2C, Ethernet, USB, etc. #Peripheraltesting: Testing any additional peripherals or components connected to the board, such as sensors, displays, or expansion cards. #Firmwaresoftwareloading: Loading initial firmware or software onto the board to test its functionality and ensure that it operates correctly. Debugging: Identifying and troubleshooting any issues that arise during the bring-up process, such as hardware defects, configuration errors, or software bugs. The goal of board bring-up is to ensure that the hardware is functioning correctly and ready for further development and testing, whether it be firmware development, software development, or integration into a larger system.

Now you can secure your door 🔐! I’m excited to share the completion of a major milestone in my embedded systems journey—my graduation project for the AVR diploma. This project pushed my limits in Embedded Software Development and taught me the importance of the Software Development Life Cycle (SDLC), from design and development to testing and debugging. Key tools like Git and GitHub were instrumental in version control and managing my project effectively, allowing me to track and maintain crucial snapshots of my code. --- Project Overview: I developed a door security system using two ATmega32 microcontrollers, operating at an internal clock frequency of 8 MHz. System Flow: 1. The HMI MCU prompts the user to enter the system password. 2. It then requests a password re-entry. If both passwords match, the HMI MCU sends the password to the Control MCU via UART. Otherwise, it prompts the user to retry. 3. The Control MCU stores the password in external EEPROM using the I2C protocol. 4. The LCD provides two options: Open Door or Change Password. 5. If the user chooses to open the door and enters the correct password, it's sent to the Control MCU via UART for verification. The door opens for 10 seconds if the password matches, and then closes. If incorrect, the system resets to the main menu. 6. If the user selects "Change Password", the new password is sent to the Control MCU and saved in the EEPROM. Security Feature: If the password is entered incorrectly 3 times, a buzzer sounds for 8 seconds, and the system resets. --- Technologies & Tools: Microcontroller: ATmega32 (8 MHz internal clock) Protocols: UART, I2C Peripherals: External EEPROM, LCD, keypad, motor control, buzzer Software Management: Git, GitHub for version control Drivers Implemented: HMI MCU: MCAL: DIO, UART, Timer HAL: LCD, Keypad Application Layer Control MCU: MCAL: DIO, UART, I2C HAL: External EEPROM, Motor Application Layer Enjoy exploring the code on GitHub : https://lnkd.in/ddBX_GUZ and I am open for any discussions. #EmbeddedSoftware #microcontroller #DoorLockSystem

Interfacing I2C LCD and Keypad 4X4 with Arduino Uno The I2C (Inter-Integrated Circuit) is a serial communication protocol that allows multiple devices (like an LCD) to be connected to the Arduino using only two wires, SDA (Data) and SCL (Clock). #embeddedsoftware #arduino #arduinoprojects #electricalengineering #engineer #ingénieur #rechercheemploi #recherchedestage