2.45 GHz Focusing Lens Antenna

@iamhamzazaki

As a multidisciplinary engineer, I have successfully designed various custom PCBs and handled critical embedded firmware assignments, which have instilled in me the necessary skillset for your project. My expertise with low-power embedded systems, wireless communication (including frequencies in your specification range), and sensor-driven applications will undoubtedly come in handy for this antenna design task. In particular, my proficiency in 3D modeling and simulation, as well as my comprehensive knowledge of electrical and mechanical engineering, aligns perfectly with the project's demands. I am well-versed in most renowned 3D EM solvers like CST Studio Suite, HFSS, FEKO - tools you mentioned using to validate the system's electromagnetic performances. I am committed to delivering quality results aligned to your project specifications. My track record of transforming conceptual ideas into robust, manufacturable solutions within agreed cost and time frames will ensure that you receive a meticulous design report detailing every step I took and validating all necessary requirements. Let's work together towards an end-product that concentrates microwave energy effectively meeting your lab/industrial-use needs!

@AwaisChaudhry

With over a decade in the freelance world and a strong background in Electrical Engineering and Electronics, I'm equipped with the necessary skills to guarantee your project's success. My team at ZAWN Tech thoroughly combines deep technical knowledge with real-world project experiences to ensure its rapid completion while adhering to all specifications. Our strength lies in building fast, secure, and scalable systems and this project will be no exception. Moreover, we are masters of 3-D EM solvers such as CST Studio Suite, HFSS, and FEKO; ensuring that simulations for return loss, beam pattern, peak gain, size of the focal region are accurately carried out. We understand the sensitivity of your project's objective and our goal aligns perfectly: maximizing the 2.45GHz microwave energy delivered to a small focal spot through directivity, gain, and high power-density focusing at the target spot

@markoa7

Hello, I’ve reviewed your 2.45 GHz focusing lens project and can deliver a full EM design package that aligns with your power-beaming objectives. I would model a dielectric lens or horn-lens hybrid with attention to directivity, gain, and a tight near-field focus at the specified 2-3 cm spot, validated through CST/HFSS/FEKO simulations. Deliverables include native solver project files, STEP/IGES geometry, material call-outs (εr, loss tangent, machinability), radiation patterns, S-parameters, near-field maps, and manufacturing-ready drawings. I’ll document methodology and optimisation steps clearly and provide a concise design review video walk-through. What specific tolerance and acceptable manufacturing method (machined vs 3D printed) do you prefer for the lens prototype? Best regards, Marko Aleksic

@hayteekeys

Hi, KINDLY READ MY PROPOAL MY APPROACH I will define the lens architecture (plano-convex, bi-convex, or Fresnel profile) and feed type (standard gain horn or waveguide aperture) based on your focal distance and spot-size targets. I will model and optimize in CST Studio Suite or HFSS, iterating on lens geometry, dielectric permittivity (εr), and feed placement to maximize gain, directivity, and near-field power density at the focal point. I will validate S-parameters, radiation patterns, gain vs. frequency, and near-field focus maps to confirm performance before fabrication commitment. I will select and document the dielectric material (εr, loss tangent, high-power handling, machinability/printability notes) suitable for 1 kW CW operation. I will produce manufacturing-ready files (STEP/STL/IGES + drawings) for CNC machining or 3D printing. DELIVERABLES Native simulation project files + 3D geometry (STEP/STL/IGES) Material call-outs with high-power handling notes Radiation patterns, gain, S-parameters, and near-field focus maps Design report (methodology, optimization, expected performance) Manufacturing drawings ready for machining or printing TO START Exact focal distance (working distance from lens to target)? Feed type preference (horn or waveguide)? Fabrication method preference (CNC PTFE/HDPE or 3D-printed dielectric)?

@ENG1mga

Welcome I MADE MANY SMART DEVICES THAT MANUFACTURED AND USED IN REAL YOU WILL GET IT DONE PERFECTLY IN LESS TIME CHECK MY LATEST REVIEWS > (http://www.freelancer.com/u/ENG1mga) I have previously worked on, Lifting Set of Drones Mechanism, Robotic Arm, Delivery Robot, Automatic Wiring Machine, Solenoid Engines, Car Rooftent, Boat Lift Mechanism, Shoe Treadmill Mechanism Mechanical Ventilator and many other projects. I use Solidworks, Fusion 360, and ANSYS, COMSOL I have a workshop specializing in all 3D printing and CNC machining work, so I strive to provide the highest quality and precision. What you will receive with me: - 2D drawings - 3D files - Complete Tech. Formats - Finite Element Analysis (FEA) (if needed). Benefits: - I've worked on over 110 successful engineering projects here, rather than pursuing a successful career isolated outside of the Freelancer platform. - Experience in computer-aided manufacturing (CAM), and sheet metal work. - Moulds and Injection Molding and Design for Manufacture (DFM). - CFD and FEA Analysis Finally, I'm honored to work with you, and I will strive to make you satisfied and meet all your expectations. We look forward to our fruitful discussion. Regards,

@geno700

Hi, I’m Ahmed. I am a Mechatronics Engineer with 6+ years of specialized experience in Fusion 360 and integrated hardware development. i did previously work on lithography machine I don't just provide digital designs; I operate a fully equipped R&D lab with 3D printing, CNC, and precision craft tools. This allows me to virtually design and physically validate your prototype, ensuring it works in the real world before you move to mass production. My expertise includes: Mechanical: Complex CAD/CAM for 3D printing and CNC. Electrical: Custom PCB design and sensor integration. Software: Embedded C and firmware for smart devices. I’d love to hop on a 10-minute chat to discuss your technical requirements and how I can help bring this product to life. Best regards, Ahmed

@Ryan15222

Hi, Your project to design a high-directivity microwave focusing system at 2.45 GHz using a dielectric lens or horn-lens hybrid is very interesting, especially given the goal of concentrating energy from a 1 kW microwave source into a small focal region (~2–3 cm). I would be glad to assist with the full electromagnetic design, optimisation, and simulation validation required before fabrication. My experience includes electromagnetic and multiphysics simulation, high-frequency structures, and energy-focused systems, using tools such as ANSYS HFSS / CST-type workflows to evaluate radiation characteristics, impedance matching, and near-field focusing performance. For this project, I can support the following steps: • Antenna–Lens Architecture Development – Evaluate dielectric lens vs horn-lens hybrid configurations – Define focal distance, aperture size, and optimal geometry for maximum directivity and power density • Full-Wave Electromagnetic Simulation – Model and optimise the design in a 3-D EM solver – Analyse S-parameters (return loss), radiation patterns, gain vs frequency, and beam focusing behaviour – Generate near-field intensity maps to verify the 2–3 cm focal region • Material & Manufacturing Definition – Recommend dielectric materials (εr, loss tangent) suitable for machining or 3-D printing – Provide machining-ready or print-ready geometry Best regards,

@mykolalus

Hi, From your description, you need a full EM design of a dielectric lens or horn-lens hybrid that focuses energy from a high-power microwave source into a ~2–3 cm focal region. The key tasks will be optimizing directivity, maximizing power density at the focal point, and validating the design using a solver such as CST Studio Suite or Ansys HFSS. My approach would be: 1. Define feed geometry and horn aperture for efficient coupling 2. Design and optimize dielectric lens shape and εr 3. Simulate S-parameters, gain, and near-field focus distribution 4. Iterate for maximum energy concentration at the target distance 5. Deliver simulation files, radiation plots, and manufacturing drawings Quick question: What is the approximate distance from the antenna to the desired focal spot, and what type of microwave feed (waveguide, coax, or existing horn) will be used with the 1 kW source? Best regards Mykola

@StarSpark3D

As a highly experienced 3D Modeling and Mechanical Engineering Specialist, I believe I'm the ideal candidate to design your 2.45 GHz Focusing Lens Antenna. Throughout my career, I've developed strong proficiency using a range of software such as Solidworks, Fusion 360 and Autocad, all tools crucial for modeling and optimizing antenna designs. Thus, my expertise and usage of recognized 3-D EM solvers blend perfectly with the task at hand. A prominent aspect of my work that resonates with your needs is my ability to deliver dimensionally accurate models to be used for manufacturing, prototyping or digital purposes. This aligns directly with your requirement for native simulation project files as well as exported 3‑D geometry. My experience not only covers a diverse array of applications but also spans over using different materials - an essential skill when it comes to the machinability notes required for your dielectric. Lastly, I understand the importance of documentation in engineering projects like yours. And I assure you, my design report will go beyond summarizing methodology, optimization steps and expected performance but will provide enough clarity to facilitate a quick online design walk-through. I aim to exceed expectations by delivering appropriate solutions promptly necessitated by my skills in SLA and DLP printing, quickly validated through design simulations generated by myself in advance. Let's translate plans into effective results together!

@electronicsdone

Best RF & Microwave Antenna Design Expert ⭐⭐⭐⭐⭐ Hi, Thank you for posting your project, “2.45 GHz Focusing Lens Antenna.” I’ve reviewed your requirements and can help design and optimize a high-directivity dielectric lens or horn-lens antenna system that concentrates microwave energy from your 1 kW source into a tightly controlled focal region. I bring 11+ years of experience in RF electronics, antenna design, and electromagnetic simulation, along with hands-on work using 3-D EM solvers to model high-gain antennas, microwave focusing systems, and power-handling RF structures for industrial and research applications. ✅ How I’ll Help You Succeed 1. Design and optimize a dielectric lens or horn-lens hybrid antenna to maximize directivity, gain, and energy concentration at 2.45 GHz. 2. Perform full 3-D electromagnetic simulations to validate return loss, beam patterns, focal spot size, and peak gain. 3. Select suitable dielectric materials with proper εr and low loss tangent, ensuring machinability or 3-D print feasibility. ✅ Before I start, one quick question: Do you already have a preferred feed antenna (waveguide, horn, or patch) connected to the 1 kW source, or should I recommend the optimal feed structure for maximum focusing efficiency? If you share that, we can align quickly and move forward. Best regards, Prat PCB Must Innovations

@ZainAbbas51862

Greetings Dear Hiring Manager I have read the description of your project and I understand everything. I am an expert in computational electromagnetics and microwave engineering, with extensive experience using CST Studio Suite and HFSS to design high-gain dielectric lenses and horn-lens hybrids for 2.45 GHz high-power applications. I specialize in optimizing phase-front transformation and focal spot convergence to achieve 1 kW power-density targets, ensuring that S-parameters, near-field focus maps, and material selection (such as PTFE or HDPE) are fully validated for high-intensity industrial environments. I am waiting on chat to discuss more and I am willing to start it now. Best Regards, Zain Abbas

@trm66614

Hi thereGood evening , I am Talha. I can work with your project skills Electronics, Finite Element Analysis, 3D Modelling, MATLAB/Simulink, Radio Frequency Engineering, Mechanical Engineering, Antenna Design and Electrical Engineering I am writing to propose an innovative approach to tackle your project. Our proposal centers on delivering creative and effective solutions that will set your project apart. We will present fresh, out-of-the-box ideas that align with your project's objectives, demonstrating how we can achieve remarkable results. Our commitment to staying at the forefront of technology will be evident, as we detail the latest tools and technologies to be employed. Please note that the initial bid is an estimate, and the final quote will be provided after a thorough discussion of the project requirements or upon reviewing any detailed documentation you can share. Could you please share any available detailed documentation? I'm also open to further discussions to explore specific aspects of the project. Thanks Regards. Talha Ramzan

@hussainarh

(Price is negotiable) Hello, I hope you are doing well. We have experience in designing antenna from HF Band to Ku, on PCB to all metal high power antenna. I have recently completed an antenna simulation for multi-Ham bands. The antenna simulations also included the effect of different soil conditions on the radiation patterns. Other than that, we extensive work experience in RF domain including developing TR modules, RF circuit components and a good antenna portfolio, some which can be seen in my profile. I am well versed in CST/HFSS simulations, and I think I am a good match for this job. Regards AbdulRahman

@revival786

Greetings! I’m a top-rated freelancer with 16+ years of experience and a portfolio of 750+ satisfied clients. I specialize in delivering high-quality, professional 2.45 GHz focusing lens antenna creating services tailored to your unique needs. Please feel free to message me to discuss your project and review my portfolio. I’d love to help bring your ideas to life! Looking forward to collaborating with you! Best regards, Revival

@joaquinc48

✅✅✅ RF / Microwave Antenna Design Engineer (2.45 GHz Lens Antenna) ✅✅✅ Hi there, I have strong experience designing high-gain microwave antennas and RF structures using CST and HFSS, including horn antennas, dielectric lenses, and high-directivity systems in the ISM 2.45 GHz band. My work includes full EM simulation, return-loss optimization, beam shaping, and near-field power-density analysis for high-power RF applications. My approach would be to model a horn-lens or dielectric focusing lens in a 3-D EM solver, optimize the geometry and dielectric parameters for maximum gain and controlled near-field focusing, then validate S-parameters, radiation patterns, and focal spot size through simulation before producing fabrication-ready files and documentation. A few questions: What is the antenna feed type from the 1 kW source (waveguide, coax, or horn)? What focal distance is required for the 2–3 cm spot? Are there constraints on lens diameter or dielectric material? I am ready to start immediately. Best regards.

@serhiih25

Hello, I can deliver what you need. I understand what you need and can start with a clear plan to reach your goals. I am an expert with 8 years of experience in Mechanical Engineering, Electrical Engineering, 3D Modelling and I helped many clients reach their goals. Visit my profile to check my latest work and reviews from past clients. Connect in chat to discuss details and next steps. Best regards, serhii

@rocios46

Hello, I have solid experience in RF and microwave system design, including antenna modeling and optimization using full-wave electromagnetic simulation tools such as CST Studio Suite and HFSS. Your requirement to focus 2.45 GHz microwave energy from a 1 kW source into a small focal region aligns well with high-gain antenna and dielectric lens optimization work I’ve done for directive RF systems. For this project, I would design and simulate either a dielectric focusing lens or a compact horn-lens hybrid, optimizing the geometry and dielectric parameters to maximize directivity, gain, and power density at the defined focal distance. The process will include return-loss optimization, beam pattern shaping, and near-field analysis to achieve the target ~2–3 cm focal spot while maintaining good efficiency at 2.45 GHz. Deliverables will include the native EM simulation files, 3D CAD geometry (STEP/STL), detailed radiation and near-field plots, S-parameters, and a concise design report with material recommendations and manufacturing guidance for machining or 3D printing. I can also walk you through the simulation results and design decisions during a short review session. I’d be happy to share examples of previous RF/antenna design work and discuss the focal distance, aperture constraints, and preferred manufacturing method before starting.

@mickj5

Hi there! I’m Daniel, a licensed Architect and PE here in your area. I saw your request for the 2.45 GHz dielectric lens design and I’m confident I can handle the EM modeling for you. I have experience with high-gain focusing and 3-D solvers like HFSS/CST to ensure we hit that 2-3 cm focal spot. I can provide the full simulation files, S-parameters, and CNC-ready STEP files you need for the 1 kW source. Since I’m local, I’m happy to do a quick design walk-through whenever you're ready. Let’s get to work!

@romank201

Hello, I’m an experienced electronics and RF design engineer with strong expertise in microwave systems and 3-D electromagnetic simulation, and I can develop a highly directive dielectric lens or compact horn-lens solution optimized to concentrate 2.45 GHz energy from your 1 kW source into a tight 2–3 cm focal region. Using advanced EM tools such as CST Studio Suite, ANSYS HFSS, or Altair FEKO, I will model, optimize, and validate the antenna-lens design to achieve maximum gain, controlled beam shaping, efficient impedance matching, and safe high-power handling. Deliverables will include native simulation project files, exported STEP/STL/IGES geometry, dielectric material specifications (εr, loss tangent, machining considerations), radiation pattern and gain plots, S-parameters, near-field focus maps, and a concise design report with optimization methodology and expected performance. I will also provide manufacturing-ready drawings or print-ready files so the lens can be fabricated directly, along with a live walkthrough to review the simulation results and design decisions. Could you please share the current source antenna type (waveguide, horn, or other), the desired focal distance from the lens, any constraints on lens size/material, and whether thermal or high-power dielectric considerations should also be included in the optimization? ? Regards, Roman