#CAD Workflow

[prototechsolutionsblog]

🚀 Unlock the Future of Design with ProtoTech's CAD Automation Tools! 🛠️

🚀 Discover the Future of CAD with ProtoTech! 🚀

Struggling with repetitive design tasks? ProtoTech's 𝐂𝐀𝐃 𝐀𝐮𝐭𝐨𝐦𝐚𝐭𝐢𝐨𝐧 𝐓𝐨𝐨𝐥𝐬 are here to revolutionize your workflow! Discover how our innovative solutions can streamline your design process, enhance productivity, and elevate your projects to new heights. 💡

✨ Key Features:

𝐀𝐮𝐭𝐨𝐦𝐚𝐭𝐞𝐝 𝐂𝐀𝐃 𝐂𝐮𝐬𝐭𝐨𝐦𝐢𝐳𝐚𝐭𝐢𝐨𝐧: Tailor your designs effortlessly with our advanced automation capabilities.

𝐒𝐞𝐚𝐦𝐥𝐞𝐬𝐬 𝐈𝐧𝐭𝐞𝐠𝐫𝐚𝐭𝐢𝐨𝐧: Easily integrate with popular CAD software for a smooth, efficient workflow.

𝐀𝐝𝐯𝐚𝐧𝐜𝐞𝐝 𝐒𝐜𝐫𝐢𝐩𝐭𝐢𝐧𝐠: Utilize powerful scripting tools to automate complex tasks.

𝐀𝐮𝐭𝐨𝐦𝐚𝐭𝐞𝐝 𝐏𝐫𝐨𝐜𝐞𝐬𝐬𝐞𝐬: Save time with automated repetitive tasks, allowing you to focus on creativity.

𝐄𝐫𝐫𝐨𝐫 𝐑𝐞𝐝𝐮𝐜𝐭𝐢𝐨𝐧: Minimize manual errors and ensure design accuracy.

🔍 Dive into our latest blog post to learn more about how ProtoTech is transforming the CAD landscape with cutting-edge technology.

🔗 Read the full article here: https://prototechsolutions.com/blog/key-features-and-capabilities-of-prototechs-cad-automation-tools/

[dianejonesblog]

Structural Engineering Projects with BIM-Integrated Precast Concrete Design

Discover the future of construction with BIM-Integrated Precast Concrete Design! This innovative approach revolutionizes how we plan and execute structural engineering projects. By integrating Building Information Modeling (BIM) with precast concrete, we achieve unparalleled precision, efficiency, and sustainability. Say goodbye to traditional methods and embrace a smarter, more streamlined process that saves time and reduces costs.

Join the movement towards modern construction excellence! BIM-Integrated Precast Concrete Design not only enhances collaboration among project stakeholders but also ensures higher quality and consistency in every build. From concept to completion, experience the benefits of cutting-edge technology in your structural engineering projects. Let's build the future together! 🏗️✨

[immersivtechnologies]

HOW CAD AUTOMATION TOOLS STREAMLINE WORKFLOW & BOOSTS PRODUCTIVITY 

Discover the transformative impact of CAD Automation in simplifying intricate design tasks and enhancing the overall quality of your final product.

Read our latest article to explore how CAD Automation tools are revolutionizing workflows, reducing errors, and optimizing productivity.

[joyandella-123]

The Power of Software in Managing Fabricating Machine Tools

Software continues to evolve and spread its impact in the fabricating world. From Computer Numerical Control (CNC) machines to laser cutters and press brakes, software solutions are revolutionizing how manufacturers control and optimize their operations

CNC Machine Control and Programming: One of the primary applications of software in fabricating machine tools is CNC machine control and programming. Advanced CAD/CAM (Computer-Aided Design/Computer-Aided Manufacturing) software allows manufacturers to design intricate components and generate toolpaths with unparalleled precision. These toolpaths, when translated to CNC machines, guide the actions like cutting or bending processes, ensuring that the final product adheres precisely to the intended design. This level of automation not only reduces the risk of human error but also significantly accelerates the production process.

Optimized Production Scheduling: Fabrication software includes modules for production scheduling, enabling manufacturers to optimize the use of their machine tools. By considering factors such as machine availability, tooling requirements, and order priorities, the software generates efficient schedules that minimize downtime and maximize throughput. This results in a smoother workflow, reduced lead times, and enhanced overall efficiency in the fabrication process.

Real-Time Monitoring and Data Analytics: Modern fabricating software provides real-time monitoring capabilities, allowing manufacturers to track the performance of their machine tools on the shop floor. This includes monitoring parameters such as machine utilization, downtime, and error rates. By collecting and analyzing this data, manufacturers can identify bottlenecks, diagnose issues, and make informed decisions to optimize machine performance. Predictive maintenance algorithms can even anticipate potential equipment failures, minimizing unplanned downtime and maximizing the lifespan of the machinery.

Inventory and Material Management: Software solutions extend their influence to inventory and material management. By integrating with enterprise resource management (ERP) systems, fabricators can maintain real-time visibility into their material inventory. This leads to accurate demand forecasting, preventing out-of-stock or overstock situations. Additionally, software aids in material tracking, ensuring that the right materials are used for specific jobs, reducing waste, and optimizing costs.

Quality Assurance and Traceability: Software plays a pivotal role in ensuring product quality and traceability in fabricating machine tools. Quality control modules within these systems can monitor and enforce adherence to design specifications. Moreover, the software can include features for traceability, allowing manufacturers to trace the production history of each component, from raw material to finished product. This not only enhances quality assurance but also facilitates compliance with industry standards and regulations.

Integration with IoT (Internet of Things): The integration of fabricating machine tools with the Internet of Things (IoT) is another area where software is making a significant impact. Sensors on machines collect data in real-time, feeding it to the software for analysis. This connectivity enables remote monitoring, predictive maintenance, and the implementation of smart manufacturing practices. Manufacturers can make data-driven decisions (or feed them into decision-support software) to optimize production processes and respond promptly to changing conditions.

As the manufacturing landscape continues to evolve, the role of software in managing fabricating machine tools cannot be overstated. Embracing these technological advancements not only positions manufacturers at the forefront of innovation but also empowers them to meet the demands of a rapidly changing market while ensuring the highest standards of quality and performance.

[ncircletech]

Elevate Efficiency: Unleash the Power of CAD Workflow Automation

Streamline your design process with CAD workflow automation. Boost efficiency and productivity by automating repetitive tasks, reducing errors, and accelerating project timelines. Discover how our CAD automation solutions can revolutionize your design workflow and empower your team to focus on creative innovation.

[nnctales]

Can ChatGPT Automate AutoCAD Based on AI Voice Input?

In recent years, the field of artificial intelligence (AI) has made remarkable advancements, revolutionizing various industries. One area that has seen significant transformation is computer-aided design (CAD) and drafting. AutoCAD, a widely used software for 2D and 3D design and drafting, has become a staple tool for architects, engineers, and designers. With the emergence of AI voice…

[blubberquark]

I can't tell you which laptop to buy

Over the years, I have been asked "Which laptop should I buy?" many, many times. We have now arrived at a point where I can no longer meaningfully answer this question.

In the past, I would have said something like "Get a laptop with enough RAM, and make sure the keyboard, trackpad, and display all work for you. You can't swap out the keyboard, mouse and display like you can in a desktop."

In the past, I would have said something like "Are you just using it for e-mail, Facebook, and Netflix? Are you doing a lot of office productivity stuff? Will you be giving slide presentations? Do you also want to do some light gaming? Do you need an SD card slot for your digital camera? Are you doing video editing/CAD modelling/cinematic 3D rendering?"

It really depends on what kind of laptop you want. You could want a desktop replacement, because you don't have the space for PC. You could want a "luggable" machine that you take from your office to the meeting room or the lecture hall, and back and occasionally to a different location in the trunk of your car. You could want a portable laptop that you keep in a laptop bag, backpack, or briefcase, and sometimes use on your lap or in a café if you are one of these people. You could want a "light" laptop that you carry with you at all times.

I still couldn't tell you which laptop to buy. So many people these days use their phone or a tablet for e-mail, facebook, and netflix that it doesn't really make sense to recommend a small and light laptop. You'd want to be a step above that. So many people use the "cloud" for all their documents and data, so it doesn't make sense for them to think about having a large HDD. If you own a gaming a console and a desktop PC, and you write your e-mails on a tablet, it doesn't really make sense to have a cheap laptop, but it also doesn't make sense to have a big laptop, unless you change your workflow.

Some people still need a CD drive, a large hard disk, or VGA-out, but usually there's a USB-C dock for that use case.

If you never use your laptop anyway, you may as well give Ubuntu a chance. It even runs Steam!

[andmaybegayer]

This is very interesting: a novel CAD package built on a text based file format that should allow you to check files into version control and automate tasks, plus a geometry engine optimized for GPU compute.

It's also got some noteworthy backers, the appeal of this is obvious to anyone who has ever tried to integrate CAD into a larger workflow, it takes a lot of manual shunting of files and tagging of releases and fighting with export formats, even with all the features SolidWorks and Inventor and SolidEdge have added over the years.

It's not parametric, of course, because that's a totally different approach to modelling that's much harder to automate this way. I'm not sure if that's reasonably possible without just doing SVG bullshit.

There's an LLM powered Text To CAD thing where you are meant to be able to just describe an object and get back the CAD for it but at least for now it can only do things that are relatively simple, it feels a little like a crutch to deal with how slow generating simple parts through code CAD can be. Defining an I-beam parametrically is the kind of thing you can do basically without thinking. I guess you'd probably want to have a library of parametrically defined common parts to pull from once you've been doing this for five minutes.

Close but no cigar! It does get the flange and web the right way around. Using inches because I assume it's trained in Freedomheit.

They're keeping their geometry solver closed source, but I'd be interested to see if declarative cad like this takes off in industry, it's a slow moving space but hardware design is increasingly available to startups and small businesses who might be willing to throw away a lot of old CAD philosophy.

A lot of industry uses constructive CAD like this, the US military has BRL-CAD. Never could get my head around it.

[runaway-workshop]

Working on a new slimline head base for more human proportions, so for LARP, Cosplay, partial fursuits, anything where you'd want to wear a clothed or well-fitted costume with. I prefer sculpting these on CAD rather than Clay so I get to change up my workflow day to day. Hoping to have this available in-store before the end of the year

[richrdjones]

Optimizing Group Projects with SolidWorks PDM: The Ultimate Collaboration Tool

Group assignments can be challenging, especially in engineering, where collaboration and accuracy are crucial. SolidWorks Product Data Management (PDM) is a powerful tool that streamlines collaborative efforts, making group assignments more efficient and manageable. In this blog, we'll explore how SolidWorks PDM facilitates collaboration, enhances productivity, and ensures project success. We'll also highlight the benefits of seeking the Best Solidworks Assignment Help Online and solidworks Assignment Help to maximize your academic performance.

What is SolidWorks PDM?

SolidWorks PDM is a data management solution that centralizes the storage, organization, and control of project data. It allows multiple users to work on the same project simultaneously while ensuring that everyone has access to the latest information. This system is particularly beneficial for group assignments, where collaboration and version control are essential.

Key Features of SolidWorks PDM

Centralized Data Storage

SolidWorks PDM provides a secure, centralized repository for all project files. This ensures that team members can easily access and share data, reducing the risk of lost or misplaced files.

Version Control

With SolidWorks PDM, every modification is tracked, and previous versions are saved. This feature allows team members to revert to earlier versions if needed and ensures that everyone is working with the most up-to-date information.

Workflow Automation

The workflow automation feature streamlines the approval process. Tasks are automatically assigned, and notifications are sent to the relevant team members, ensuring that projects move forward without unnecessary delays.

Access Control

SolidWorks PDM allows administrators to set permissions for different users, ensuring that only authorized personnel can access sensitive information. This feature helps maintain data security and integrity.

Integration with CAD Software

SolidWorks PDM seamlessly integrates with SolidWorks CAD software, providing a cohesive environment for design and data management. This integration enhances productivity and reduces the likelihood of errors.

Benefits of Using SolidWorks PDM for Group Assignments

1. Enhanced Collaboration

SolidWorks PDM facilitates real-time collaboration among team members. By centralizing data storage and providing version control, it ensures that everyone is working on the same page. Team members can easily share updates and feedback, leading to more efficient project completion.

2. Improved Productivity

The workflow automation feature of SolidWorks PDM streamlines the approval process, reducing bottlenecks and ensuring that projects stay on track. By automating routine tasks, team members can focus on more critical aspects of the project, enhancing overall productivity.

3. Reduced Errors

Version control and access control features of SolidWorks PDM significantly reduce the likelihood of errors. Team members can always access the latest version of a file, and unauthorized changes are prevented. This ensures that the final output is accurate and meets the required standards.

4. Time Savings

With SolidWorks PDM, team members can quickly locate and access the necessary files, reducing the time spent searching for information. Workflow automation further saves time by eliminating manual approval processes. These time savings translate into more efficient project completion and better use of resources.

5. Better Project Management

SolidWorks PDM provides tools for tracking project progress and managing tasks. Team leaders can monitor the status of assignments, identify potential issues, and allocate resources effectively. This leads to better project management and successful completion of group assignments.

Seeking the Best Solidworks Assignment Help Online

While SolidWorks PDM offers numerous benefits for collaborative engineering projects, seeking professional assistance can further enhance your academic performance. The Best Solidworks Assignment Help Online provides expert guidance and support for your group assignments. Here are some reasons to consider seeking solidworks Assignment Help:

Expert Guidance

Professional assignment help services employ experts with extensive knowledge and experience in SolidWorks and PDM. They can provide valuable insights and guidance, helping you understand complex concepts and complete your assignments effectively.

Customized Solutions

Assignment help services offer customized solutions tailored to your specific requirements. Whether you need assistance with a particular aspect of the project or comprehensive support, they can provide the help you need.

Time Management

Balancing multiple assignments and responsibilities can be challenging. Seeking solidworks Assignment Help allows you to manage your time more effectively, ensuring that you can focus on other important tasks without compromising the quality of your work.

Quality Assurance

Professional assignment help services ensure that your assignments are of the highest quality. They provide thorough reviews and edits, ensuring that your final output meets academic standards and is free of errors.

Plagiarism-Free Work

Reputable assignment help services guarantee original, plagiarism-free work. This ensures that your assignments are unique and adhere to academic integrity guidelines.

Conclusion

Collaborative engineering projects can be complex and challenging, but SolidWorks PDM provides the tools necessary to streamline group assignments and enhance productivity. By centralizing data storage, providing version control, automating workflows, and ensuring data security, SolidWorks PDM facilitates efficient collaboration and successful project completion.

In addition to utilizing SolidWorks PDM, seeking the Best Solidworks Assignment Help Online can further enhance your academic performance. Expert guidance, customized solutions, and quality assurance ensure that your assignments meet the highest standards. By combining the benefits of SolidWorks PDM with professional assignment help, you can achieve success in your engineering studies and group projects.

For those looking to maximize their efficiency and productivity in group assignments, integrating SolidWorks PDM and leveraging solidworks Assignment Help is the way to go. This combination provides a comprehensive approach to collaborative engineering, ensuring that you and your team can achieve your academic and project goals with ease.

reference:

[kedamono-dreams]

it's kind of insane that it's gonna be a whole year and a half since I started using linux as my full time OS soon. in my opinion, it's a very good operating system and I only really have issues with certain (important and uninportant) windows engineering/creative applications, certain games, UI, and setting up a proper music production workflow. i also wish it were easier to synchronize configurations and stuff across computers but that is just a "multiple computers" issue.

it's been a really good experience 95% of the time, and i'd recommend it to most people who don't

(boring personal history stuff relating to computers below. at the end i explain some of the issues i've had and how i think i could fix them)

I fried my gamer laptop (obviously a windows machine) on December 6th, 2022 and had to fall back on what would become my favorite laptop, the thinkpad X220t. after juggling a few different unices/Linux distros, I settled on Linux Mint MATE. however, I couldn't do any actual work on that laptop other than like basic web browsing (which was all I needed at the time bc I was in community college)

after a while I managed to put together a pretty cheap desktop! i tried installing windows 10 on it and the installer refused because I was missing drivers for something. i could not figure out what it was, it might have been my CD drive, the hard drives I had, the nvme drive, the graphics card... so I went with what I was using on the thinkpad. Linux Mint installed without a hitch.

after I went to big boy college, I decided to upgrade my laptop since I needed a better portable computer. I was either going to get a 13" Macbook or a Framework, but I went with the Framework because I liked the ideals and the features, alongside some willful ignorance. ("It's a Mac, of course it's going to cost more! Those are super expensive computers!" I assumed, before dropping $500 more than I would have on the Mac I would have bought.) I also installed Linux Mint on the Framework.

Now, to expand on some of the issues I've had with Linux: Engineering applications, creative applications, very few Windows games, UX, and music production.

Engineering applications: I am going to college for ECpE, so I need to use certain programs for coursework/extracurriculars. The big ones are Fusion360, Altium, Solidworks, just most CAD/EDA stuff. (sidenote: Intel/Altera Quartus has binaries for and works on Linux, but it requires so much undocumented work that I had to piece together from compilation/simulation error logs that I consider it to be mostly broken from install.) It sucks that so many important applications are relevant to me/my future work and they don't have native Linux binaries, don't want to install under WINE, and/or require so much finagling that you'll go a little insane trying to get them to work. The FOSS alternatives are either much worse or considered fit for only amateur work. (AFAIK) KiCAD also lacks the collaborative aspects of Fusion360 or Altium, which makes it difficult to work with others who are on Windows and do use F360 or Altium. I could probably solve this through hours of tweaking, or I could just spin up a VM for F360, Altium, or Solidworks.

Creative applications: Everything I could say has already been said, but it's also not as bad as it could be. Krita, Pinta, Darktable all seem to be quite decent. Inkscape is okay. GIMP is functional. Blender is becoming more common in the creative industry, and is a definite rival to other 3D modeling software. I think that there's probably good excuses for Adobe to not release native binaries for Linux, but it would be really nice if they at least allowed or considered supporting/making it easier to run the programs under WINE.

Rare non-functioning Windows games: I rarely play video games anymore, and most video games I want to play work through Proton/WINE by default. (Thank you, Valve!) However, like one or two games I've tried do not work properly. I could see a big reason why: I have an Intel ARC card in my desktop. At this moment in time, the ARC cards are sort of iffy in the Linux sphere. I would recommend against other Linux users getting ARC cards right now, but the price is REALLY right and I would probably buy another one if not for certain political/humanitarian issues. I could probably fix this by getting a different graphics card, tweaking launch parameters, or simply waiting a year or two.

UI: I'm kinda blind. Not legally speaking, but I have a horrible prescription (>-10.00 in each eye before correction for astigmatism) and cannot see without my glasses at all. This is mostly a personal issue, possibly a Framework issue, but very high DPI screens give me trouble. Since fractional scaling does weird stuff, I have to raise the font size by a few points and increase the size of most of the UI elements in order to feel comfortable using computers long term. I also use darker themes on my desktop. This often breaks a lot of UI , making it hard/impossible to read button or labels. LibreOffice programs are pretty bad for this. It sucks.

Music production: This is possible using Linux! Sound on Linux is not that bad! However, attaining a "pro" production config is really hard. This can be solved by nutting up and reading the docs and watching 10 hours of youtube videos, or installing a distro with all the shit built-in and preconfigured. I've heard Ubuntu Studio is pretty okay.

In conclusion: Linux is pretty good. There's issues with it but the issues (IMO) are better than the Windows issues.

[prototechsolutionsblog]

CAD Automation: Redefining the Design Landscape for Success

In the world of modern engineering and design, Computer-Aided Design (CAD) has revolutionized the way products are conceived, developed, and manufactured. As technology continues to advance, CAD automation emerges as a key player in enhancing design efficiency and fostering innovation. This blog post delves into the realm of CAD automation, exploring its significance, benefits, challenges, and potential future trends.

 Understanding CAD Automation

CAD automation refers to the process of utilizing software tools and scripts to streamline various aspects of the design process. It involves automating repetitive tasks, generating complex designs, and facilitating seamless collaboration between designers and engineers. The goal of CAD automation is to reduce manual effort, minimize errors, improve consistency, and accelerate the overall design cycle.

 Significance of CAD Automation

 1. Efficiency Enhancement:

Automating routine and time-consuming tasks, such as dimensioning, detailing, and generating drawings, allows designers and engineers to allocate more time to creative and high-value tasks. This not only accelerates the design process but also increases productivity and reduces the risk of human errors.

 2. Design Iteration and Optimization:

Automation tools enable rapid design iteration. Designers can easily generate variations of a concept, test different parameters, and evaluate multiple scenarios. This iterative process aids in identifying the most optimal design solution and fosters innovation.

 3. Consistency and Standardization:

CAD automation enforces design standards and guidelines consistently across projects. This ensures that designs adhere to industry best practices and regulatory requirements, reducing the chances of errors caused by deviations from standards.

 4. Complex Geometry and Customization:

Automated scripts and parametric modeling techniques enable the creation of intricate and complex geometries that might be challenging to achieve manually. Additionally, automation allows for easy customization of designs to meet specific customer requirements.

 5. Collaboration and Communication:

CAD automation tools facilitate seamless collaboration between cross-functional teams. Design modifications, updates, and feedback can be efficiently communicated and integrated into the design process, enhancing teamwork and reducing communication gaps.

 Benefits of CAD Automation

 1. Time Savings:

Automating repetitive tasks drastically reduces the time required for design and drafting. This leads to faster project completion and quicker time-to-market for products.

 2. Error Reduction:

Human errors are inevitable in manual tasks, but automation significantly reduces the risk. Consistent and standardized designs generated by automation tools mitigate the chances of costly mistakes.

 3. Innovation Encouragement:

By handling routine tasks, designers can focus on exploring innovative design concepts and pushing boundaries. This results in more creative and inventive solutions.

 4. Cost Efficiency:

Efficient design processes translate to cost savings. Reduced design time, fewer errors, and optimized designs contribute to lower production costs.

 5. Enhanced Quality:

Automation tools ensure that designs adhere to defined standards, leading to higher-quality outputs that meet or exceed customer expectations.

 Challenges of CAD Automation

While CAD automation offers numerous benefits, it's important to acknowledge the challenges that come with its implementation:

 1. Initial Setup Complexity:

Developing and implementing automation scripts requires specialized skills and time. Setting up an automation workflow can be complex and resource-intensive.

 2. Maintenance and Updates:

Automation workflows need continuous monitoring and updates to remain effective. Changes in design requirements or software updates may necessitate adjustments to the automation process.

 3. Skill Requirements:

CAD automation demands a certain level of programming and scripting skills. Not all design professionals possess these skills, which might lead to a skill gap within the team.

 4. Balancing Automation and Creativity:

While automation improves efficiency, there's a concern that excessive automation might stifle creativity. Striking the right balance is crucial to ensure that designers still have the freedom to innovate.

 Future Trends in CAD Automation

The future of CAD automation holds exciting possibilities:

 1. AI-Powered Design Generation:

Artificial Intelligence (AI) could play a significant role in generating design concepts based on user inputs and requirements. This could lead to the rapid creation of diverse design options.

 2. Cloud-Based Collaboration:

Collaboration tools and CAD software are likely to move towards the cloud, enabling real-time collaboration between team members regardless of their geographical location.

 3. Integration with Simulation and Analysis:

Automation could seamlessly integrate design with simulation and analysis tools, allowing for quicker evaluation of design performance and optimization.

 4. Generative Design Evolution:

Generative design algorithms, driven by AI, could become more advanced, producing complex designs that consider multiple variables and constraints.

 Conclusion

CAD automation is transforming the design landscape by freeing designers from repetitive tasks, empowering them to innovate, and enhancing design efficiency. While challenges exist, the benefits of CAD automation outweigh the drawbacks, and the continuous evolution of technology promises even greater possibilities in the future. Embracing CAD automation can position design teams at the forefront of innovation and efficiency in the rapidly evolving engineering and manufacturing industries.

ProtoTech Solutions' journey into the realm of CAD automation is a testament to the transformative power of technology. Their commitment to streamlining design processes, fostering innovation, and embracing the future sets an inspiring example for the entire design and engineering community. As ProtoTech Solutions continues to pioneer advancements in CAD automation, the design landscape stands poised for a future of unprecedented efficiency, creativity, and collaboration.

[lastlycoris]

re: breast cancer ai, is the testing that would need to be done to make sure it's an accurate result invasive or expensive or both?

It seems I jumped the gun when I reblogged that article. Despite them using a mammogram on the post's images, this AI innovation is for pathology, not radiology. I was talking about computer-aided detection for mammography, but this is a different beast entirely.

--

So some background, DCIS is known as ductal carcinoma in situ and is a pre-cancerous or a non-invasive cancerous lesion of the breast, depending on who you ask. Approximately 1/3 of people who have this develop actual breaat cancer aka it leaves the duct and start invading other things. So to make sure cancer doesn't develop, people are often recommended to excise it or even get a mastectomy - the removal of the whole breast - to treat it.

But doesn't that sound a little extreme when 67% of people may not even develop it?

I mean, look at prostate cancer, where urologists watch and wait to see if cancer will progress using labs, imaging, and occasionally biopsy. Because by the time you are diagnosed with prostate cancer, you're more likely to die from something else like a heart attack, old age, etc than from the cancer itself because it tends to grow so slowly. And getting a preemptive removal of the prostate - prostatectomy - has a lot of unwanted consequences including urinary incontinence and erectile dysfunction.

Wouldn't it be nice then if we could figure out what forms of DCIS would turn into full-blown cancer and what sort would behave more like prostate cancer?

Well, we do have some tech in the works, I believe, in the form of RNA sequencing, where you look at the cancer's genetic profile to see if it will go bad quickly. But RNA sequencing is expensive, and I don't believe it's common place yet.

And that's what the MIT research comes in. They are stating they can predict the behavior of DCIS, whether it'll act good or bad, by taking tissue samples of past known DCIS (and already having documented their behavior if they turned into cancer or not and how fast they do), using a chromatin stain to create slides, and feeding them into an AI to generate a predictive model that could tell from a tissue slide how DCIS will behave based on the model.

Staining and creating slides is cheaper than doing RNA sequencing according to the article ( I do not have the numbers on hand, but it seems like it'd be right), so this is a big deal as it both is cheaper for the patient and may allow a patient to avoid unneeded surgery.

Of course, the model needs to be validated to see if it works in practice, but it sounds promising.

---

As for what I was taking about erroneously, it's called computer-aided detection, and it analyzes mammogram images.

The CAD software can detect areas that are suspicious on a mammogram and alert a radiologist to them. The problem is that it can mark areas that may seem suspicious to the computer but seems normal to the mammographer. But what does a mammographer do with that information then?

The normal workflow of mammography is that you find a suspicious lesion on screening mammogram, ask the patient to come back to take diagnostic / magnified / compression images aka the breast getting smooshed views (more cost and discomfort), and if it's still suspicious with additional views you do a biopsy (invasive).

If the CAD is wrong but you test, you have done unnecessary imaging or worse even an unnecessary biopsy.

But if you the mammographer say that the CAD is wrong when it's right, you just missed cancer and put yourself in a very tight spot if they run the CAD software on your images.

To answer your question from what I was referring to, yes, the testing to confirm all the findings that the CAD points out would add a lot of unnecessary tests and biopsies for the patient.

[immersivtechnologies]

6 BEST PRACTICES OF CAD AUTOMATION GIVEN BY INDUSTRY EXPERTS

Discover top CAD automation tips from industry experts.

Optimize workflows with these 6 best practices for efficient and precise design processes.

[mugbearerscorner]

I know nothing about lego building but i'm curious, is there a program you use for it or a set of programs? Are there other options the community likes to use as well?

There are currently a few options!

First of all, there's Mecabricks, which is a web-based digital designing platform with some powerful rendering capabilities. For examples of Mecabricks-based works, you can check my friend Gunn on Twitter: https://twitter.com/buildinggunn

There are also a few obscure LEGO CAD programs that I am personally not familiar with, and also not sure they are as popular.

Then there are LEGO Digital Designer and Bricklink's Stud.Io.

The former used to be an official LEGO digital building software but got discontinued in 2019 after several years of neglect. It is not currently obtainable from the official LEGO site, but there are those (including myself) who keep the installer stored on their hard drives for media conservation purposes. It is also still very much functional, and there are clever minds on Eurobricks.com who learned how to update the part palette with more recently released bricks and pieces.

I've been using LDD since 2013 and I am very much used to the simplistic, albeit buggy, interface it has. It is also purely building tool; there are no bells and whistles.

Stud.Io, on the other hand, is LEGO's new groove: BrickLink have been developing their own stand-alone CAD called Stud.Io prior to the LEGO Group acquiring them, and now it's a new official digital building tool. It has a lot of bells and whistles to talk about, such as:

A Blender-based "photorealistic" Cycles rendering engine, as well as POV-Ray.

A BrickLink intergration which allows to check color availability, as well as approximate price of your design. It also can upload your designs to BrickLink's build sharing platform, but this one has some dubious terms of service and content policies, so it's recommended to avoid BrickLink's gallery.

An in-depth instructions manual making tool that lets you design instructions for your designs! It's very cool!

A simple yet efficient Part Designer tool allowing you to create custom LEGO part designs for all your digital building needs. For examples of insane mad skillz Part Designer usage, please refer to my good friend Valtarashol: https://twitter.com/Kureesko

A one-way compatibility with LDD's file format which lets you import LDD models into Stud.Io for further processing. This is an essential part of my workflow. =)

An ability to export your model in several different 3D object formats, including Collada and LDraw. Useful if you want to pick up Blender and fuck around with your design there.

To be honest, by now I am somewhat confident in building in both programs but still prefer LDD. :D

Thank you for the ask!

[wojnalik]

HELLO havent been here in ages have we so ive been messing around with blender for a couple of weeks and decided to finally render something completely from scratch and taking part in halloween edition secret santa event on small discord server was a great opportunity to do so! This one is for Alntrula

Im a complete noob in blender and all i did ever was trying some yt tutorials. Not easy when you began with CAD like things and switch to geometry nodes... but i started to see the pattern in modeling, undertand some basic shortcuts and how the program works. So at last I knew what I was doing, what i was looking for and it made the workflow so much more pleasing! I planned my time for every step from sketching the views, to modeling, texturing, armature and rendering and it did help me learning from tuts and take the work goals one at a time. Heres the sketches in 2d and akjsndkj I WAS ALREADY HYPED so MUCh

couple of other scraps and wips

this one was a challange the loooong guy with many legs is behir model for a plushie pattern you can see i made some attempts to see which actually clicks with the idea... its still not perfect for patterning but idc im super happy with the last one anyways B))

BTW i love the windows sort of 3d object viewer?? you can pick a gradient and lighting in there so easily LIKE HOW I DIDNT KNOW ABOUT IT its soOOO helpfull whataheeeeeeek