Creating robowaifus requires lots and lots of design and artistry. It's not all just nerd stuff you know Anon! :^) ITT: Add any techniques, tips, tricks, or content links for any Digital Content Creation (DCC) tools and training to use when making robowaifus. >note: This isn't the 'Post Your Robowaifu-related OC Arts & Designs General' thread. We'll make one of those later perhaps. >--- I spent some time playing with the program Makehuman and I'll say I wasn't impressed. It's not possible to make anime real using Makehuman, in fact the options (for example eye size) are somewhat limited. But there's good news, don't worry! The creator of Makehuman went on to create a blender plugin called ManuelBastioniLAB which is much better (and has a much more humorous name). The plugin is easy to install and use (especially if you have a little blender experience). There are three different anime female defaults that are all pretty cute. (Pictured is a slightly modified Anime Female 2.) There are sliders to modify everything from finger length to eye position to boob size. It even has a posable skeleton. Unfortunately the anime models don't have inverse kinematic skeletons which are much easier to pose. Going forward I'm probably going to use MasturBationLABManuelBastioniLAB as the starting point for my designs. --- Saving everything with yt-dlp (>>16357, >>12247) >===

Tensegrity Thread Tenssegrity is the purposeful application of tension in a system of non-contact components to provide integrity. These components effectively float on compression provided by tension elements. Tensegrity structures are often formed via rigid rods with a cable defining the spatial relations of the system. Picrel 1 is NASA’s Super Ball Bot, which uses the common 6 bar structure. By altering the lengths of the rods, the “ball” can roll. Please see (https://www.nasa.gov/image-article/super-ball-bot/) Our bodies use tensegrity to provide us with incredible strength, durability, and adaptability. Consider how when you bump into something or fall, you can feel the pressure dissipate throughout large parts of your body. This is due to your muscles, fascia, ligaments, etc… transferring the force throughout your body, protecting the impacted part. You can walk with little effort thanks in part to tensegrity. Your legs joints are all floating, providing low friction movement while distributing the force of impact throughout your entire leg when you step. Please see (http://intensiondesigns.ca/geometry-of-anatomy/) Tensegrity can also be made with elastic elements. These structures are what I believe are best suited for our endeavors. They provide looser tolerance requirements and give her body some squeezability. By incorporating naturally stretchable elements, she can better withstand having an Anon using her. (I speak from experience, though I still broke that torso before taking pictures.) Though there are drawbacks. These designs are deceptively difficult to design correctly. Our requirements for external aesthetics provide unique design requirements that complicate the design phase. I still believe using this concept is objectively correct for us to pursue. A good example to build off of (Debatable whether or not it’s true tensegrity): https://www.thingiverse.com/thing:4182634

Post your prototypes and failures. We fail until we win. Don't forget looking through the old threads here >>418, >>18800 and >>21647 to understand how we got to where we are now.

For the most of 2024 and until now, I have been working on my own robowaifu design. I call her Galatea. The design is very easy to build with the instructions and files, and is relatively very cheap, less than $400 to make. It's also very customizable, you can choose the color, dress, hair, and even AI. I intend this to be the Model T of humanoid robots and robotic companions, while it is not the most complex, it is easy to mass produce and cheap. The updated design makes the legs more proportionate, and a new head that's more anime styled, to increase cuteness. I also have a new robot base that's more powerful.

That Time I Incarnated My Christian Cat Girl Maid Wife in a Short Dress Together we can create the robowaifu-verse! Let's start making media to further our cause. There's tremendous potential for us to reach a wide market and prime minds to accept their future cat grill meidos in tiny miniskirts. We have text based stories floating around but, audio and visuals are paramount to gain a general audience. I will start with a short about a young man building a small cat girl and learning to understand her love. Importantly, she will be very limited, in the same way our first models will be. To set certain expectations. Mahoro is impossible but, the slow and simple robowaifus that can exist have their own charm. Let's show the world the love that will soon exist. --- >thread-related Robowaifu Propaganda and Recruitment (>>2705) >=== -add related crosslink

I am new to this ib so I am seeing how it works. Could you show me how to use this ib and its rules? Example of how to put programming text, use bold, what programs use, etc. > aldo sorry for my shit vocabulary I am learning to speak English > aldo 2 I am very excited to learn and help when I understand the subject well.

A large amount of this board seems dedicated to hardware, what about the software end of the design spectrum, are there any good enough AI to use?

The only ones I know about offhand are TeaseAi and Personality Forge.

Keep your eyes on the prize edition --- Notice: I'm going to have to put a hiatus on this project until at least this Summertime 2024 (probably later). A) There seems to be only a little interest in it right now by anons. B) Right now in my life I have too much else on my plate that needs attention. C) In the meantime, whenever I'm here I'll still be happy to answer any questions anons have for the first 11 classes so far, or for anything in the textbook thread also. I hope to be back with this later, Anons. Cheers. Update 2: My apologies to every Anon who participated, but this classroom project is cancelled. There are several reasons why, but the >tl;dr is simply: >I now recommend you use https://learncpp.com (cf. >>35657 ).

Your project is really disgusting >=== Notice #2: It's been a while since I locked this thread, and hopefully the evil and hateful spirit that was dominating some anons on the board has gone elsewhere. Accordingly I'll go ahead and unlock the thread again provisionally as per the conditions here: >>12557 Let's keep it rational OK? We're men here, not mere animals. Everyone stay focused on the prize we're all going for, and let's not get distracted. This thread has plenty of good advice in it. Mine those gems, and discard the rest. Notice:

>Welcome to /DMG/ DIY Motor Generation! This is the place to discuss DIY motor designs, showcase your creations, and refine your ideas on motor tech. This thread is a requested offshoot of the "Actuators For Waifu Movement" thread to focus specifically on DIY motors. We will focus solely on DC motors. I will start the thread off by talking about the types of motors and terms associated with electric motors to keep a good reference to look back on. It should be noted that most motors are Radial Flux and not Axial Flux. What is flux? Magnetic flux is a measure of the total magnetic field which passes through a surface. Radial and Axial describes the orientation of the magnetic flux. Radial Flux Motor > A radial flux motor is like a cylinder spinning inside another cylinder. The magnetic flux flows perpendicular to the axis of rotation, meaning it moves from the stator to the rotor radially outward or inward. Traditional cylindrical motors (like most brushed and brushless DC motors, induction and steppers) are radial flux motors. Rotor and stator are concentric, with the stator surrounding the rotor. Pros: Well-established, widely used, good for high-speed applications. Cons: Can be bulkier and less power-dense compared to axial flux motors. Axial Flux Motor >An axial flux motor is like two discs spinning parallel to each other. The magnetic flux flows parallel to the axis of rotation, meaning it moves along the shaft’s length rather than outward. These motors have a flat, disc-like design where the stator and rotor are stacked on top of each other rather than inside one another. Pros: More compact, higher torque density, and better cooling due to a larger surface area. Cons: More complex to manufacture, higher initial costs. Kinds of Motors: >Brushed DC Motor: Uses brushes and a commutator for current switching. Simple, inexpensive, but requires maintenance due to brush wear. >Brushless DC Motor (BLDC): Uses electronic commutation instead of brushes. More efficient, longer lifespan, commonly used in drones and electric vehicles. >Coreless DC Motor: Lighter and more efficient than traditional brushed motors, often used in small precision devices like robotics and medical instruments. >Stepper Motor: Moves in discrete steps, allowing precise control. Used in CNC machines, 3D printers, and robotics. >Servo Motor: A DC motor with feedback control for precise positioning. Used in robotics, RC vehicles, and automation. >Single-Phase Induction Motor: Used in household appliances like fans and washing machines. >Three-Phase Induction Motor: Used in industrial applications due to high efficiency and reliability.