Completed a mini project on H Bridge motor driver with LED

✨ Understanding Different Types of Diodes ✨ In electronics, diodes are fundamental components with diverse applications beyond just allowing current to flow in one direction. Each type of diode has unique characteristics tailored for specific purposes. Here are some key types: 🔹 Standard Rectifier Diode – Converts AC to DC in power supplies 🔹 Zener Diode – Provides voltage regulation by allowing reverse current flow 🔹 Photodiode – Converts light into current, widely used in sensors 🔹 Light Emitting Diode (LED) – Converts electrical energy into light 🔹 TVS Diode – Protects circuits from voltage spikes & ESD 🔹 Tunnel Diode – Exhibits negative resistance, useful in microwave applications 🔹 Tunnel Emitting Diode – Converts electrical energy into light 💡 As an electronics professional, understanding these components helps in designing efficient, reliable, and innovative circuits. 👉 Which type of diode have you worked with most in your projects? #Electronics #Diodes #Engineering #Technology #CircuitDesign

Case Study: Taming Annoying Acoustic Noise in Power Modules 🔇 A client's industrial power module was emitting a high-pitched "singing" or buzzing sound under load—a classic case of inductor acoustic noise. This phenomenon, often caused by magnetostriction and winding vibration, is more than just an annoyance. It signals energy loss and can raise reliability concerns. Our engineered solution focused on the root cause: ✅ Material Science: Switched to a specialized ferrite core composition with lower magnetostriction. ✅ Advanced Process: Implemented vacuum impregnation with a high-performance epoxy to securely lock the windings and dampen vibration. ✅ System-Level Synergy: Worked with the client's team to slightly adjust the switching frequency, moving it away from the sensitive audio range. The result? Audible noise was eliminated, and the project moved smoothly into high-volume production. Have you encountered similar "singing" inductors in your #UPS, #PowerSupply, or #SolarInverter designs? What was your solution? Share your experiences in the comments! #Engineering #CaseStudy #Magnetics #PowerElectronics #EMC #HardwareDesign #Reliability #Manufacturing #[IKP electronics]

DYNAMIC NATURE, BALANCE IN IEEE Electrical electronics engineering is a natural course due to its basic features like force, magnetic field and direction of electric ⚡. The dynamic approach of instituting a balance course, that is EEE without being one sided is phenomenal. Now, over the decade, the modernization of the natural course is at its peak. consider various conditions in circuit, transmission and distribution of electric 💡 power. The completeness 💯 of electrical electronics engineering ⚡ is seen in these two laws found in electromagnetism. The left hand ✋ and right hand ✋ fleming's rule. Do you know the benefits or importance of these two laws?. lenz law states when a current carrying conductor is placed in a magnetic field, an induced current flow in such a way as to oppose the motion producing it. left hand ✋ fleming's rule is uses thumb, first finger and second representing force, magnetic field and direction of current respectively. it focuses on the behaviour of current carrying conductor placed in a induced and magnetic field. The resultant behaviour will be that, there will be an induced emf (electro motive force) on that wire or conductor in that region with strong magnetism. left hand 👏 fleming's effect is seen in electric induction motor where external supply excite a magnetic field around those 120 degree placed coil which results to rotation of the rotor. While right hand 👏 fleming's rule focuses on self generating or induced current carrying conductor which excites or induces a potential difference on itself. Example of these is Generator, the generator induces using force, magnetic field and current which is represented using thumb 👍, first finger and second finger 🤞 respectively. consequently, an electrical electronics engineering course has a balance equation,rule and laws that take care of various opposite conditions found in its nature. #eletricalthought #flemingsrule #circuit

DYNAMIC NATURE, BALANCE IN IEEE Electrical electronics engineering is a natural course due to its basic features like force, magnetic field and direction of current. The dynamic approach of instituting a balance course, that is EEE without being one sided is phenomenal. Now, over the decade, the modernization of the natural course is at its peak. consider various conditions in circuit, transmission and distribution of electric 💡 power. The completeness 💯 of electrical engineering ⚡ is seen these two laws found in electromagnetism. The left hand ✋ and right hand ✋ fleming's rule. Do you know the benefits or importance of these two laws?. lenz law states when a current carrying conductor is placed in magnetic field, and induced current flow in such a way as to oppose the motion producing it. left hand ✋ fleming's rule is uses thumb, first finger and second representing force, magnetic field and direction of current respectively. left hand fleming's rule focuses on the behaviour of current carrying conductor placed in a induced and magnetic field. The resultant behaviour will be that, there will be an induced emf (electro motive force) on that wire or conductor in that region with strong magnetism. left hand 👏 fleming's effect is seen in electric induction motor where external supply excite a magnetic field around those 120 degree placed coil which results to rotation of the rotor. right hand 👏 fleming's rule focuses on self generating or induced current carrying conductor which excite or induced a potential difference on it self. Example of these is Generator, the generator induces using force, magnetic field and current which is represented using thumb 👍, first finger and second finger 🤞 respectively. consequently, an electrical electronics engineering course has a balance equation,rule and laws that take care of various opposite conditions found in its nature. #eletricalthought #flemingsrule #circuit

DYNAMIC NATURE, BALANCE IN IEEE Electrical electronics engineering is a natural course due to its basic features like force, magnetic field and direction of current. The dynamic approach of instituting a balance course, that is EEE without being one sided is phenomenal. Now, over the decade, the modernization of the natural course is at its peak. consider various conditions in circuit, transmission and distribution of electric 💡 power. The completeness 💯 of electrical engineering ⚡ is seen these two laws found in electromagnetism. The left hand ✋ and right hand ✋ fleming's rule. Do you know the benefits or importance of these two laws?. lenz law states when a current carrying conductor is placed in magnetic field, and induced current flow in such a way as to oppose the motion producing it. left hand ✋ fleming's rule is uses thumb, first finger and second representing force, magnetic field and direction of current respectively. left hand fleming's rule focuses on the behaviour of current carrying conductor placed in a induced and magnetic field. The resultant behaviour will be that, there will be an induced emf (electro motive force) on that wire or conductor in that region with strong magnetism. left hand 👏 fleming's effect is seen in electric induction motor where external supply excite a magnetic field around those 120 degree placed coil which results to rotation of the rotor. right hand 👏 fleming's rule focuses on self generating or induced current carrying conductor which excite or induced a potential difference on it self. Example of these is Generator, the generator induces using force, magnetic field and current which is represented using thumb 👍, first finger and second finger 🤞 respectively. consequently, an electrical electronics engineering course has a balance equation,rule and laws that take care of various opposite conditions found in its nature. #eletricalthought #flemingsrule #circuit

The AWG number is inversely proportional to the wire's size. So, a lower AWG number means a thicker wire that can handle more electrical current. 🔌 12 AWG: Thick and perfect for general power outlets. 💡 14 AWG: A bit thinner, great for lighting circuits. 🔊 18 AWG: Thinner still, ideal for low-voltage things like speakers. Choosing the right gauge prevents overheating and ensures your devices get the power they need to run efficiently. #TechExplained #Engineering #Electrical #WireGauge #StayConnected #Science #DIYProjects #lcscelectronics #cable

Case Study: Solving the "Singing" 48V Power Module in a Server Rack 🎵➡️🔇 A client's new high-density server power module was failing final QA. The issue? An audible, high-frequency "singing" noise under specific loads—a classic yet elusive problem. The Challenge: 🔸 Audible noise from the main power inductor, unacceptable for datacenter environments. 🔸 Efficiency dip of ~3% at mid-load, creating a thermal hotspot. 🔸 Project timeline at risk due to unpredictable debugging. Root Cause Analysis: Our team diagnosed it as combined magnetostriction (from the core material) and winding vibration (from the AC current). The standard ferrite core and bobbin winding structure acted like a tiny, unwanted speaker. Our Engineered Solution: We didn't just swap a part. We redesigned the magnetic solution: Core Material: Switched to a specialized low-magnetostriction ferrite blend. Winding Tech: Implemented pressure-wound, flat wire construction to minimize air gaps and dampen vibration. Process: Used vacuum impregnation with a high-thermal-conductivity epoxy to lock the windings and improve heat dissipation. The Results: ✅ Audible noise eliminated. (Passed acoustic QA) ✅ Mid-load efficiency improved by 2.5%. ✅ Peak temperature reduced by 15°C. ✅ Client secured a major order, and the design is now in mass production. The lesson? Not all inductors are created equal. A component engineered for the application's specific stresses is often the key to reliability. Struggling with noise, thermals, or efficiency in your #UPS, #ServerPower, or #IndustrialDesign? 👉 Let's diagnose it. DM me "Noise" for a copy of the full technical case study. #PowerElectronics #CaseStudy #EMC #HardwareDesign #ThermalManagement #Engineering #Magnetics #Innovation #[IKP ELEC]

🔌 How 6 Diodes Turn AC into DC 💡 Ever wondered how industrial drives get smooth DC from rough AC? The answer lies in the Three-Phase Bridge Rectifier — a core component in modern power electronics. 🔧 Here's a breakdown to spark your engineering mind: ✅ 3-phase AC input (R, Y, B) enters the rectifier ✅ 6 diodes arranged in a bridge configuration ✅ Two diodes conduct at any moment — one positive, one negative ✅ Conduction happens in 60° segments to maintain continuity ✅ Output: 6-pulse DC waveform with reduced ripple ✅ Efficiency: Higher than single-phase systems ✅ Applications: – Motor drives – DC link converters – Industrial automation systems 🎯 Why it matters: Understanding the timing and conduction logic of each diode pair helps engineers optimize power conversion and system efficiency. 🔍 Visual learners, don't miss the infographic! It simplifies everything — from diode flow to waveform shape. 🚀 Let’s make power electronics less complex, one concept at a time. ♻️ Repost to share with your network if you find this useful. 🔗 Follow Ashish Shorma Dipta for posts like this. #PowerElectronics #ThreePhaseRectifier #BridgeRectifier #IndustrialAutomation #MotorDrives

In electrical engineering, we learn about the Maximum Power Transfer Theorem — maximum energy flows when the source and load are perfectly matched. But in fiber optics, it’s different. We don’t chase “maximum transfer” by balancing impedances — instead, we chase minimum loss. Every splice, every connector, every bend… the goal is to align perfectly so that nothing is wasted. In the same way, our relationships with God, family, and colleagues don’t always work on “taking the maximum,” but on reducing the losses — misalignments, misunderstandings, distractions. The more we align, the less we lose. And when loss is minimized, the light (guidance, love, teamwork) travels farther and clearer. #FiberOptics #Networking #Engineering #Telecom #Technology #Leadership #Relationships #Teamwork #Faith #LifeLessons

Basic Electrical Components ⚡ The Building Blocks of Electronics ⚡ Every electronic device you see is made of these basic components: 🔴 Resistor – Controls current flow. 🔵 Capacitor – Stores and releases electrical energy. ⚪ Diode – Allows current in one direction only. 🟤 Inductor – Stores energy in a magnetic field. ⚫ Transistor – Amplifies or switches signals. 🟡 Transformer – Steps up or down voltage. 👉 Mastering these basics is the first step toward becoming an expert in electrical and electronics. #Engineering #Electronics #ElectricalBasics #Learning