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Giant Composite Aerospace Part Manufacturing. This machine is the Mongoose Hybrid from Ingersoll Machine Tools. It is an AFPM, Automatic Fiber Placement Machine. Mongoose Hybrid can fiber-place, tape-lay and inspect a wide variety of carbon fiber materials from the most common to the most challenging including epoxies, BMI, thermoplastics, carbon fiber, glass fiber, and more. This is an appreciation post highlighting a manufacturing process that you might not have seen before. Video Credit: Ingersoll Machine Tools Camozzi Group #additivemanufacturing #3dprinting #aerospacemanufacturing #aerospaceengineering #aerospaceindustry #3dprinter #manufacturing #engineer #industrialengineering #mechanicalengineering #mechanicalengineer #3dprint #3dprinted #aerospace
3D Printing a Mold for a Private Jet Winglet 3D printed on the Ingersoll MasterPrint Ingersoll MasterPrint, the world’s largest polymer 3D printer, is so big that it can produce objects up to 100 feet long. It has the ability to seamlessly program, simulate, 3D print, and mill wide-and-high composite parts in a single piece. This is an appreciation post highlighting an additive manufacturing process that you might not have seen before. Video Credit: Ingersoll Machine Tools Camozzi Group . #3dprinting #3dprinter #3dprinted  #3dprintinglife #3dprintable #3dprintingindustry #3dprinterworld #3dprintingservice #engineering #engineer #engineers #additivemanufacturing #engineeringdesign #engineeringtech #3dprints #3dprint #makersgonnamake #makersmovement #engineeringlovers #engineering_life #engineeringgadgets #engineeringtube #engineeringmarvel #engineeringpost #engineeringproject #mechanicalengineering #mechanicalengineer #mechanicalengineers
Here are six common mistakes when installing heat pumps or straight cool units and how to avoid them: 1. Improper Load Calculation and Ductwork Sizing: Mistake: Not performing accurate load calculations and improperly sizing ductwork, leading to inefficient operation. Avoidance: Conduct thorough load calculations and ensure ductwork is appropriately sized for the new system, not just relying on existing ductwork. 2. Incorrect Wiring and Voltage Supply: Mistake: Cross-wiring outdoor and indoor units, using incorrect voltage or wire size, and poor wiring practices. Avoidance: Follow the unit-specific installation manual for correct wiring configuration, wire size, and required line voltage. Avoid using wire nuts and junction points on communication wiring. 3. Failure to Maintain Piping Integrity: Mistake: Not keeping refrigerant piping clean and dry, leading to potential leaks and inefficiency. Avoidance: Use best practices for flaring and brazing, pressure test with nitrogen, and perform a triple evacuation to remove moisture and non-condensable gases. 4. Neglecting Airflow Balance: Mistake: Failing to balance airflow properly, causing uneven heating or cooling and increased energy consumption. Avoidance: Ensure proper airflow balance throughout the system and correct any ductwork issues that may affect performance. 5. Incorrect Equipment Sizing: Mistake: Not sizing the heat pump system correctly for the home’s heating and cooling needs, leading to inefficient operation. Avoidance: Properly size the heat pump to avoid issues like rapid cycling, high energy bills, and inadequate comfort. 6. Improper Refrigerant Charging: Mistake: Charging the system incorrectly, which can decrease efficiency, damage the compressor, and cause malfunctions. Avoidance: Always refer to the manufacturer’s specifications for refrigerant charging and ensure accurate charge levels. Avoiding these common mistakes when installing heat pumps or straight cool units is crucial for ensuring optimal performance, efficiency, and longevity of the system. If there is something you would add to this list please comment.     #hvac #hvactechnician #hvaclife #hvactech #hvacmaintenance #mechanicalengineer
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Here are six common mistakes when installing heat pumps or straight cool units and how to avoid them: 1. Improper Load Calculation and Ductwork Sizing: Mistake: Not performing accurate load calculations and improperly sizing ductwork, leading to inefficient operation. Avoidance: Conduct thorough load calculations and ensure ductwork is appropriately sized for the new system, not just relying on existing ductwork. 2. Incorrect Wiring and Voltage Supply: Mistake: Cross-wiring outdoor and indoor units, using incorrect voltage or wire size, and poor wiring practices. Avoidance: Follow the unit-specific installation manual for correct wiring configuration, wire size, and required line voltage. Avoid using wire nuts and junction points on communication wiring. 3. Failure to Maintain Piping Integrity: Mistake: Not keeping refrigerant piping clean and dry, leading to potential leaks and inefficiency. Avoidance: Use best practices for flaring and brazing, pressure test with nitrogen, and perform a triple evacuation to remove moisture and non-condensable gases. 4. Neglecting Airflow Balance: Mistake: Failing to balance airflow properly, causing uneven heating or cooling and increased energy consumption. Avoidance: Ensure proper airflow balance throughout the system and correct any ductwork issues that may affect performance. 5. Incorrect Equipment Sizing: Mistake: Not sizing the heat pump system correctly for the home’s heating and cooling needs, leading to inefficient operation. Avoidance: Properly size the heat pump to avoid issues like rapid cycling, high energy bills, and inadequate comfort. 6. Improper Refrigerant Charging: Mistake: Charging the system incorrectly, which can decrease efficiency, damage the compressor, and cause malfunctions. Avoidance: Always refer to the manufacturer’s specifications for refrigerant charging and ensure accurate charge levels. Avoiding these common mistakes when installing heat pumps or straight cool units is crucial for ensuring optimal performance, efficiency, and longevity of the system. If there is something you would add to this list please comment. #hvac #hvactechnician #hvaclife #hvactech #hvacmaintenance #mechanicalengineer
The expansion device, often called the metering device, is the fourth component necessary for the compression refrigeration cycle to function. The expansion device is not as visible as the evaporator, the condenser, or the compressor. Generally, it is concealed inside the evaporator cabinet and not obvious to the casual observer. The device can be either a valve or a fixed-bore.  The expansion device is one component that divides the high side of the system from the low side (the compressor is the other). It is responsible for metering the correct amount of refrigerant to the evapora-tor. The evaporator performs best when it is as full of liquid refrigerant as possible, with none left by the time it reaches the suction line. Liquid refrigerant that enters the suction line may reach the compressor because only a small amount of heat is added in the suction line. Usually, liquid in the suction line is a problem. The expansion device is normally installed in the liquid line between the condenser and the evaporator. On a hot day, the liquid line may be warm to the touch and thus can be followed quite easily to the expansion device, where there is a pressure drop and an accompanying temperature drop. For example, the liquid line entering the expansion device may be 110°Fon a hot day. In a low-temperature cooler using R-134a, the low-side pressure on the evaporator side may be 3 psig at a temperature of-8°F. This dramatic temperature drop can be easily detected when found. The device may be warm on one side and frosted on the other. Because some expansion devices are valves and some are fixed-bore devices, the temperature change can occur in a very short distance-less than an inch on a valve or a more gradual change on some fixed-bore devices. From the book: Refrigeration & Air Conditioning Technology 9th Edition #hvac #hvactechnician #hvaclife #hvactech #hvacmaintenance #mechanicalengineer
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The expansion device, often called the metering device, is the fourth component necessary for the compression refrigeration cycle to function. The expansion device is not as visible as the evaporator, the condenser, or the compressor. Generally, it is concealed inside the evaporator cabinet and not obvious to the casual observer. The device can be either a valve or a fixed-bore. The expansion device is one component that divides the high side of the system from the low side (the compressor is the other). It is responsible for metering the correct amount of refrigerant to the evapora-tor. The evaporator performs best when it is as full of liquid refrigerant as possible, with none left by the time it reaches the suction line. Liquid refrigerant that enters the suction line may reach the compressor because only a small amount of heat is added in the suction line. Usually, liquid in the suction line is a problem. The expansion device is normally installed in the liquid line between the condenser and the evaporator. On a hot day, the liquid line may be warm to the touch and thus can be followed quite easily to the expansion device, where there is a pressure drop and an accompanying temperature drop. For example, the liquid line entering the expansion device may be 110°Fon a hot day. In a low-temperature cooler using R-134a, the low-side pressure on the evaporator side may be 3 psig at a temperature of-8°F. This dramatic temperature drop can be easily detected when found. The device may be warm on one side and frosted on the other. Because some expansion devices are valves and some are fixed-bore devices, the temperature change can occur in a very short distance-less than an inch on a valve or a more gradual change on some fixed-bore devices. From the book: Refrigeration & Air Conditioning Technology 9th Edition #hvac #hvactechnician #hvaclife #hvactech #hvacmaintenance #mechanicalengineer
Replying to @saji 🇧🇩 Should you double major in mechanical engineering and computer science? #mechanicalengineering #mechanicalengineer #computerscience #computerengineering #computerengineer
CNC Machining a Diamond Ring. CNC machined on a Bumotec s191H This is an appreciation post highlighting a CNC Machining process that you might not have seen before. Video Credit: Starrag #cnc #cncmachine #cncmachining #manufacturing #machining #engineering #cncmill #cncmilling #metalworking #aerospacemanufacturing #aerospaceengineering #machinist #chcprogramming #cncprogrammer #cncmanufacturing #cncmachinist #machineshop #tooling #tools #industrialengineering #lathe #cnclathe #mechanicalengineering #mechanicalengineer
You just realized you ordered a new 10,000 CFM custom air handler with the coil connections on the wrong side! 🤦‍♂️ If you’ve been in the industry long enough, you’ve probably experienced this nightmare at least once. Not all manufacturers use the same naming convention for coil connection sides. Some judge by the air hitting them in the face 🌬️, while others go by the air hitting the back of their head. 💨 Which method do you use? 👇 Drop your answer in the comments, and let’s settle the debate! #hvac #hvactechnician #hvaclife #hvactech #hvacmaintenance #mechanicalengineer
Starting a new project using our @WeCreat_official  40w Vision laser. Gears!!!!! Something we have always wanted to mess around with. Cut out of 1/4” ply in 3 passes, 100% power and at 15mm per sec. #laser #lasercut #lasercutting #gears #mechanicalengineering #mechanicalengineer #wecreat
3D Printing a HUGE Catamaran. 3D printed 4.5m long 600 kg catamaran-shaped casco boat This is an appreciation post highlighting an additive manufacturing process that you might not have seen before. . Video Credit: Blueflame3D #additivemanufacturing #3dprinting #aerospacemanufacturing #aerospaceengineering #aerospaceindustry #3dprinter #manufacturing #engineer #industrialengineering #mechanicalengineering #mechanicalengineer #3dprint #3dprinted #aerospace #machining #robotics #robot #robots #manufacturing
@sav 🎱🍒🍸 @Diana Juvera @arely✨  #for #bestfriend #teachersoftiktok #mechanicalengineer #manager #manufacturingoperator #daywithme
Congrats @Logan ! Hard work pays off! Keep reaching for the stars! #purdueuniversity #mechanicalengineer #motorsportsengineer @Daryl Dilts
Amazing Support-Free 3D Printing This appreciation post highlights an additive manufacturing process you might not have seen before. Video Credit: @Aibuild   #additivemanufacturing #3dprinting #aerospacemanufacturing #aerospaceengineering #aerospaceindustry #3dprinter #manufacturing #engineer #industrialengineering #mechanicalengineering #mechanicalengineer #3dprint #3dprinted #aerospace
Impressive Concrete 3D Printing. This is an appreciation post highlighting an additive manufacturing process that you might not have seen before. Video Credit: Hyperion Robotics . . . #additivemanufacturing #3dprinting #3dprinter #manufacturing #engineer #industrialengineering #mechanicalengineering #mechanicalengineer #3dprint #3dprinted #structuralengineering #civilengineering

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