AU Class
AU Class
class - AU

Introduction to Simulation for Industrial Designers

共享此课程
在视频、演示文稿幻灯片和讲义中搜索关键字:

说明

Are you an industrial designer (or a CAD user in general)? Are you not doing much with the simulation tools? Come and learn why and how you should be exploiting finite element analysis (FEA) and simulation in Fusion 360 software. Engineers are designers’ teammates, not opponents. Design and validation tools will help you collaborate with engineers more effectively. Those tools will also help you to carry a design to production with fewer changes. You’ll go to engineering with a sound concept, rather than something that needs a lot of help. We will talk about static stress, shape optimization, and maybe even a little generative design.

主要学习内容

  • Test designs in Fusion 360 with static stress and shape optimization, and perhaps do a little generative design as well
  • Learn how to apply simulation tools to your design process
  • Learn how to export simulation reports for engineering
  • Discover Fusion 360 Simulation tools

讲师

  • Jeffrey Smith
    Jeff Smith (RIT 93' ID) is and Industrial Design working at Autodesk in World Wide Sales focused on Automotive. Currently a TSE (Innovation Agent), Jeff has also been on both the Customer Success Team and Education Team focused on Fusion Adoption. Prior to Autodesk, Jeff spent 20 years as a practicing Industrial Designer with experience in a wide range of markets and manufacturing processes. In addition, Smith has been adjunct faculty at three colleges (the Art Institute of Ft. Lauderdale, RIT and Iowa State). Jeff is home based in South East Florida.
Video Player is loading.
Current Time 0:00
Duration 0:00
Loaded: 0%
Stream Type LIVE
Remaining Time 0:00
 
1x
  • Chapters
  • descriptions off, selected
  • subtitles off, selected
      Transcript

      JEFF SMITH: Well, welcome, everyone, to my class. My name is Jeff Smith. And I am happy that you have decided to join my Introduction to Simulation for Industrial Designers. Quickly, before we get started, a little bit about me-- I am an industrial designer. I have been working at Autodesk for almost seven years. I've taught several classes here at AU.

      I started on our Education team helping colleges and universities adopt Fusion 360. I spent some time on our Customer Adoption team helping customers adopt and use Fusion 360. And currently, I am on our Automotive team, actually on Sales, helping people leverage our software and listen to customers. So it's quite interesting.

      Prior to joining Autodesk, I did about 20-plus years as an industrial designer. My CAD background is SolidWorks. I have built products all over the world, spent time manufacturing products, and design for manufacturing is a thing.

      I also taught as adjunct faculty at the Art Institute of Fort Lauderdale for Industrial Design. And I'm currently adjunct faculty at the Rochester Institute of Technology, which I am also alumni from. So quickly, if you'd like to learn a little bit about me, head over and give me a follow on Instagram.

      This is me here. I post a lot of what I do, most of which is old-school drawings and marker renderings. But I also do some CAD, some simulation and things of that nature over here. So if you'd like, that's something that you can go follow and learn more about me. So with that in mind, let's go forward and jump right into Fusion. So let me switch over there.

      So if you're familiar with Fusion 360, you know this side of the coin. If you're familiar with many other parametric CAD modeling tools like SolidWorks, or Inventor, and so on. I'm not going to dive deep on anything on the modeling side. What I'm going to do is hopefully open the door to why you as a designer should be touching on FEA or simulation on a basic level to empower yourself.

      As designers, we work in real-world production. And engineering is our mirror image on this team. We both bring assets to this development process. The more I can reach out to engineering, the more I can learn about that, the better my designs make it to production. The less I have an engineer throwing something back over at the fence at me saying, this won't work, I want to reach out with an olive branch to say, let's work together. If I get my things closer to reality, that helps me.

      So with that in mind, my demo is pretty straightforward here. I would like to do a simple L bracket, and that's enough context for what we are going to do. So I'll do a quick sketch on the front plane here. And I'll draw myself a rough L bracket. And again, this is straightforward, nothing major. But I find, when you're learning something new in a technology, keep it simple to start the ball rolling.

      So we'll just make a gigantic 25-millimeter thickness L bracket here, OK? And we'll also make this 25. I may want to change this later, so I'm not going to make it equal. And let's just say that it's 200 millimeters long, and our L going down the wall is 125 millimeters. Great. Simple, to the point, nothing major. We'll quickly extrude that as a solid.

      I am going to set it as symmetric because I want my spine plain to be right down the middle. And we'll say, 25 millimeters as well. We'll get a nice, good size on this thing. All right? You can see, I've already saved this file as my Autodesk University Sim 1. It's on version 1. We'll save it again. Great. I can put my user-saved version description in if I want or not. And it will go forward from there.

      OK, so it's saved. And the reason I saved it is, A, I want it on the cloud, and I want it ready to process, OK? If you're using Fusion, you are comfortable with that, and you're comfortable with my Modeling/Design tab. I am going to go from Design down to Simulation. When I switch over to simulation, the first thing Fusion's going to ask me is, hey, what do you want to do? It's trying to guide you towards framing the context.

      So static stress is what we are going to do because I want to know what this thing can handle, and will it pass that test? You can do lots of other things, like Modal Frequency, Electronic Cooling, Thermal, and Thermal Stress. The first grouping can be solved locally or on the cloud. When you step to Structural Buckling and then Nonlinear Static Stress, Event Simulation, and Shape Optimization, those are cloud-only. So you have to leverage cloud computing for those. The first group, you can choose yourself what you want to do.

      The last one here is Plastic Injection Molding Preview. That is not quite in Fusion yet. You have to turn it on. That's a test for another story or a project for another story. It's a really powerful tool along the lines of what we're talking about today. Read about that one later. So we're sticking with Static Stress. I will create my study.

      Notice that I've got my body in here, just like I would in my design workspace. But my browser has changed. I have things that are similar, like Units. And I've got an assembly as needed, depending on what's happening. My component is here. Named Views, Origin, and then I've got my Model Components. I only have a body right now. So I can access those. But there's nothing else here, and I have no timeline because it's not worried about my construction sequences.

      I have Study Materials in my first Study, and my Study 1 is activated-- means I'm working on this one. I've got Mesh information. I've got Results-- obviously, I don't have them yet. But it's all contained in this study. When you work in the Simulation environment or Cam, or Generative, for that matter as well, the idea is to go from left to right.

      So first, I'll look at Study. I don't need a new simulation. I could add one if I wanted to. But let's work on the one I picked. Now, next is Simplify. You can simplify your model in the context of the simulation. For example, if I had multiple bodies here, I could delete the bodies I didn't want to test, but it wouldn't delete them from the file.

      So here I am. Don't need to simplify. I'm good. Now you have to tell the machine what material you're using. Now if I go to Study Materials, it's going to tell me that my category is Metal. My name is Steel. And I've got one component in there.

      And my study material is Same as Model. I've got it set to Yield Strength. You can switch it to Ultimate Tensile Strength. My engineering friends have said, Jeff, as a designer, you should be working in yield strength because tensile strength is when it completely fails and will not have any resemblance to what it ultimately was. So I have been directed by my engineer friends. I'm going to listen to them, and I'm going to stay in my lane as a designer and work on yield strength, OK?

      My standard material is steel. I can change from same as model to whatever I want here Or I can just simply go back to my design and right click and say Appearance or Physical Material. Those are ways to change the way it looks. And I want Physical because I want to say this is this material, not just looks like it. So let's go with plastic, and let's just go with a simple ABS.

      So that's an ABS plastic. We'll say, Close. And now, watch what happens when I go back to Simulation, and I go to Materials, and I say Study Materials, it's already updated ABS. You could do it either way you wanted to. You could leave it the standard and change it. I'm a believer in changing it, but both work. OK, we know what the material is.

      Next, we're going to go to Constraints. I am going to start very basic. There are many ways to constrain things. But I'm going to say, for my type, I'm going to say Fixed. There are more. I'm going to stay Basic. I want this entire face to be locked against the wall. I'm going to assume that my attachment fixture or whatever I'm gluing, bolting, screwing for right now that this face is 100% not going to move.

      And again, I am just trying to get a baseline. You can tell it to have freedom in any axis you want. So you could turn off one of the axes, two axes, whatever you like. But I want all three axes-- x, y, and z-- to be locked in place for this face because I want to test the structural integrity of this design. I'll say, OK.

      Now, I'm going to come to Loads. And notice, I've got Structural loads, Linear Global, Angular Global, Gravity On, Edit Gravity, Point of Mass-- all good. I don't necessarily need any of these right now. I will turn Gravity on just to make sure that this is oriented in the correct direction. I can edit that as needed. And I'm going to add a simple structural load to this-- very similar to my locking for this face. I'm going to pick the top face in its entirety.

      Notice that it shows me a general idea. Based on direction, it's going to go perpendicular to that face because it's planar. But I could choose an angle. I could choose a vertice and so on. I can also pick points, edges as well, and you can load them as needed. But I'm going to say, you know what, let's just put a force on this face.

      I'm pretty good in metric and in millimeters, but I can't quite think in Newton meters yet. I know that 40 Newton meters is the torque setting on my cassette for my bike, but I can't quite grasp it yet. I'm working on it. So we're going to change the units, and I'm going to change it from Newton meters to pound force. And I'm going to say, let's put 150 pounds on there, all right? And I'll say, OK.

      Contacts are not important here because I am testing a singular piece. If you had connections and things that needed to be joined together, there's a time and a place for that, but we're starting basic. This gets more complicated. Let's have success here. Under Display, you can choose to adjust the mesh. It's going to self-generate anyway, so you don't really need to worry about it. Under Management, you can dive in deep for Mesh Control or Attributes, but, again, not important for what we're doing right now.

      When you come to the solve tab, there's one here called Pre-check, which is already green. It's already checked. That's giving me a visual cue that we're ready to go. I'm going to hit Pre-check anyway, and it's going to test for me. It's going to say, Jeff, do we have the information we need? Do I have a constraint? Do I have a load case? Do I have a material? That is bare minimum for it to work. I'm going to say, OK, I agree with you.

      And then I'm going to come to Solve. And what it's going to do is give me the option because it's one of the first grouping, and I can do it on the cloud, or I can do it locally. It's going to cost me 5 Cloud Credits right now if I do it on the cloud. I'm going to switch the local, so I can talk about that side of the coin as well.

      Now, what it's going to do is it will run this test locally. It will use my hardware to run the math. Now if you haven't done this yet, Fusion will ask you to install the processing software for that. And obviously, if you want to do it, you have to say, yes, please install that. Nastran is a solver, and it will say, hey, I need to install this. It takes 40 seconds. So I've already done it. So I'm going to say, Solve.

      It's going to start running and processing this test. It's going to let you know what's going on. It's saying Locally. It would also say in the cloud if it was on the cloud. And we're already done here, all right?

      So if I come over here to my results, my safety factor is 2.4 for this piece. And it's giving you a little summary, and it's saying 3 is a common number. Yeah, for consumer products, that's probably in the ballpark. I believe aircraft parts are in the 7 range for a safety factor. It's also giving you recommendations. So how can I adjust this? How can I change this?

      And it is saying, Show weakest area of design. Deformation Scale is set to Adjusted. I'm going to say close here. I'm still in my results. And you'll notice that I've got a chart here, and it's set to Load Case with Safety Factor. I'm going to switch it to Stress. And now, it's going to show me where the stress is. Blue is less. As it goes up and climbs toward red, red is bad, OK? That's a general intent. And again, we're at 2.34. We're not that far off.

      So let's switch it to Displacement. And you'll see how much it's moving. So red shows you the most movement. Now granted, it said that its deformation scale was sent to Adjusted. If I switch this to Actual, it's going to show you the actual movement.

      So you can see that the max movement is 3.4 millimeters here. I can also animate that and show it visually. That's the actual predicted deformation. If I switch it to Adjusted two times, it's going to give me a strong visual of what it's doing. Now it's noting the specific dimension, but this is giving me a feel. So keep that in mind.

      All right, so let's cancel that for a second. Let's finish those results, and let's learn from what we've got. I'm going to go back to Design, and I'm going to adjust it. So I'm going to turn my sketch information on. And I'm going to say, you know what, let's change this a little bit.

      And let's make this maybe a little bit longer. Let's make this 150, OK. And let's make this 25 on here. Let's make that 20. And let's make this 20. And let's say, you know what, let's add a chamfer on here. So let's put a chamfer on that, and we'll pull that down, and we'll say, a 25-millimeter chamfer as well.

      OK, so I adjusted the design. Let's see what my geometric changes do to the simulation because it's all linked. So if I come back-- let's Save it just to be safe. And let's go back to Simulation. It's got an error here. I called yellow-orange errors in Fusion, look at me. Red errors are I'm broken. Yellow is look at me. So what it's telling you here is that my results are out of date. So all I've got to do is right click and say Solve again. It's going to run it locally because it remembered what I chose. It's going to take the new geometry data, and it will run that test.

      OK, so our safety factor went down because I made it thinner, even though I added that chamfer in there. So we got worse. So let's close that. Let's finish that result. Let's go back to my design environment. And let's say, all right, let's make that 30 millimeters, and let's make this 30 millimeters.

      We made that a little longer, but now, we've got this really chunky design. So we'll hit Save. And then we'll go back to Simulation. I'm out of date. Let's rerun it. So we'll say Solve. Great. So now, we're still taller. We're back to our thickness, and we added the chamfer.

      So now, our safety factor-- look, it went up to 4.47. So we're actually slightly over-engineered. And our max deformation is 1.2. If you recall, I believe, it was 3.4 and change. So now, we've learned something. We've made our design stronger by changing the geometry.

      Now hopefully, you can see the window now that says, wait a second. If I'm testing what I'm building, there's a chance I might be able to save material. I might be able to predict wall thickness, how much I need, what material it is. And now, you come to engineering with a part that's 80% there, 90% there, depending on how much you go back and forth. That took us almost no time.

      So let's go here to my results. And I am going to say report. And I'm going to preview that. And it should open it in a browser. And I can save out a PDF, but for me as a designer, this information here, I get it. I can follow it.

      But as we start to get down here, you can see that it's printing out the report of-- I'm fixed here, gravity, load case. I start to get a little bit deep in the weeds here, right? So there's sheer forces, reactionary forces, and so on. But think about the target audience for this report. We are not the target audience. You come to engineering with this report, with your design intent.

      Now think about the olive branch. Imagine if an engineer came to you concerned about the way a highlight looked on a surface. You think, wow, you are speaking my language. This is the inverse. You go to engineering with this, they are going to look at you and say, wow, you understand me a little bit. Thank you. So extend that. Reach out towards that. It's a super valid process.

      OK, I hope that helps you guys see that this is a potential pathway to increase the efficiency of your work and the efficiency of how you work and collaborate with others, OK? So I'm going to finish this results for a second. And I'm going to start a new file. And I want to talk about how you might want to collaborate with the computer as a designer taking a step forward with simulation.

      So I'm going to save this one, and we'll save it as-- in my Test Files, we'll say AU, we'll say, Shape Op1-- because we're going to use simulation in a similar way. I'll do a sketch here. We'll look at that, and I'm going to draw a quick rectangle here.

      And I think I was somewhere in the 150 by 200, or maybe it was 250. Good enough for me. And I will say, Extrude that. And we're going to say, Symmetric. And our distance-- I think I did 25, great. So we're in a similar ballpark to what we had general volume. But I'm giving the computer a brick to work with.

      Let's change the material. We'll make that Physical Material. And we use ABS. We'll make it ABS again-- terrific. Now we got this saved, terrific. I'm going to switch from Design to Simulation again. So our previous test was a Static Stress. I'm going to go to the opposite end of the corner, which is Shape Optimization. It has to be run on the cloud, and this is you collaborating with the computer or artificial intelligence to optimize a shape to solve a problem.

      Now this shape optimization is one result based on your test. It is not generative design. That's another question mark. So this is shape optimization. I will create the study, and my principal is very similar. And this will remind you of what we just did. Again, Simulations-- I happen to be in Study 1. Just make sure I hit Static Stress by accident.

      Hold on. Let's get rid of that. So a new one, and let's say, Shape Optimization, Create Study, yes. There we go-- shape optimization. I let it click the first one. So again, left to right. Notice that my Shape Optimization is activated. The first Static Stress I did is not because I'm not working in that one right now.

      I don't need to simplify. Its fine. Materials-- my study material, ABS Plastic. I'm good. That's what I did before. Constraints, Structural Constraint. I want to lock this face-- x, y, and z. We'll say, OK. Now I'm going to load it. I'll turn gravity on again. I'm going to do a structural load on the top. And I think I did. it was 150 pounds. That sounds right. It does remember what you used last over here.

      So we'll say, 150 pounds, OK. Contacts aren't important. Display isn't important right now. Shape Optimization gives you some other aspects. So you can preserve certain regions to say, OK, don't change this. I need this. You have shape optimization criteria for targeting mass or maximizing and adding stiffness. You've got global constraints as well. But we're not going into that right now. We're going to leave it standard for now.

      You've got a Symmetry Plane as well, which allows you to say make it symmetry in this plane. I could obviously add our spline plane for now, but I'm not going to go that far. I just want to preserve a region. And I want to say that this face over here, , coming off here, x distance, whatever I choose, I want to retain this amount in the z-axis 25 millimeters. So whatever you do, that has to preserve that region, OK? It has to start from that world. And let's put that at 0-- nope. Oh, I want it at that. Let's do it one more time.

      I want to do Preserve Region here. And I'm just going to drag this one over x distance. Lovely. So now, I have an area that it will not adjust, it will not take away from. I'm going to come to my Solve, I'm going to do my Pre-check. It has everything it needs. It doesn't require a preserve region. I just added it. You have to have the constraint, the load case, and the material.

      I'm going to go ahead and say Solve. Obviously, my static stress has nothing on here right now. So it's telling me there's an error, but I only want to do this one. Has to do it on the cloud. I only want to run this one. I'm going to check that one. It's going to run 5 Cloud Credits for me, and I'll say Yes.

      So what the artificial intelligence is doing is very similar to the static stress. It's running the math based on the constraint, the load, the material, and the geometry. The variable now is that it's saying, OK, I have this volume to work with. So what is processing is that it's pulling information out of that volume that I have said, this is what you're starting with. So it's going to process and take time to do that. And it's iterating down to achieving those goals. I think I said minimize mass, so it's going to push through that and calculate based on that information. And you can see, it's still sending it to the cloud, and it's processing.

      What is wonderful about using shape optimization is that you can get a really good idea of bare-minimum. If I contrast it with the other side of the coin, where I was testing and then me adjusting, you could see the process could take some steps-- back and forth, back and forth. That's wonderful, and it teaches you so much. And I hope that you do that. But when you use shape optimization, you're setting up a question mark to drive out what it does. I'm going to pause my recording for a second until this is finished, so we don't waste class time waiting for number crunching.

      OK, my results have processed. Let's go ahead and close it. And look what it's given us. It said, hey, Jeff, I think you should make an A-frame through here and put a triangular shape for that. It's going to be more efficient than what you had done. I have the ability to adjust and scale it.

      Like, if I really want to be conservative, I could add more material, and you can see it turning blue. It's saying green is good. Target is where you want to go. I'll just be a little conservative, and I'll push this to that level. Now what's super interesting here is that it generates this as a mesh. And I hope all of you as designers are not going to just take this mesh and drive it to a design intent. I hope that you are going to leverage you as a designer, and you're going to come to the Results tool and go to Promote and say, Add mesh object to Design Workspace.

      And when it does that, now, you have a mesh body in here that's a really good underlay for your design intent. Whether I print this out, sketch over it, whether I grab a screen image and draw over it digitally, whether I just model over this right now, I have a foundational mass that I know will achieve that structural test based on the material and the geometry.

      Think about that from a designer perspective. If I'm using this as an underlay, I am square in the target zone for where I need to go. And now, I'm adding what I can bring to the question of this development. I'm adding the styling, the element, the what if. And then I can test it again in the simulation. And I can say, hey, will this work? What's going on here?

      It is now a tool set in your world that you can arm yourself with. And I and I hope that I've inspired you guys to go that way in trying to explore this side of FEA analysis. And again, this is just a basic starting point. There are many ways to deal with it. But I think this is a really, really good starting point.

      OK, so with that in mind, I'm going to put a little breadcrumb out there for you guys. And that breadcrumb is Generative Design. Generative design is taking shape optimization and going a whole other level further. I'm not going to go into running, this test. But I want you to see how your knowledge that we just talked about in both static stress and shape optimization fits in here and how generative is different than shape optimization.

      So I'm going to create a study. I happen to have this piece of geometry in here because it's the same file. The principles are the same. It's left to right. I have a Study, great. Should look fairly similar as far as the way the browser shows you information. I can edit the model, just like I could simplify prior. What it gives you is choices for green geometry, which is Preserve Geometry, Obstacle Geometry, which is red. Those are fairly direct in the user interface why they picked green and red. Green is go. Green is starting. Red is stop. Red is no-go.

      Starting Shape is yellow, saying, hey, use this as a general guideline. Again, Symmetry Plane, similar to before. Obstacle Geometry Offset means I can grow it larger. But then as I come here to Design Conditions, Structural Constraint is exactly the same. Structural Loading is basically the same. You've got Load Case Attributes and Point Mass as well. But these two are needed.

      Then generative says, what are your objectives? What are you trying to do here? Minimize mass, maximize stiffness? And instead of giving you a report of what your safety factor is, it's asking you for the safety factor. And then it goes on to do I want to deal with Modal Frequency, Displacement, Buckling, and so on?

      Then it wants to know how will you be manufacturing this? Is it unrestricted? Is it additive? Are you milling this? Are you doing 2.5-axis? Are you doing 3-axis? Are you doing 5-axis? What axes is your tool direction? And/or all of the above, what is some tool diameters that you need here as far as minimum tool diameter, tool shoulder length, head diameter, and so on. Are you doing 2-axis cutting? Are you doing Die Casting? Let me just dock this again. There we go.

      Several of these tools didn't exist years ago. When this tool came out, it was only Unrestricted. But you can see that it's adding information as we go and as it learns. Then you want to assign materials. What materials am I adding? Now it defaults sometimes because I used the Additive Material Library last. But if I go to Nonlinear Material or the General Material, it's going to give you everything. And you just drag in the specifics that you need for this test.

      And obviously, as we mentioned before, my Pre-check says, whoa, you're not ready. I've got a red error here. And red errors are, we have problems, right? So I've got a Previewer, and then I can Generate. And what this will do, as it similar to shape optimization, it takes the combinations of every material you select and every manufacturing methodology and does tests for each one of them to optimize based on the geometry you're starting with and based on geometry where you can't go, and the load cases, and the structural constraints. And it gives you options upon options that you drive out to reality.

      So I'm not going to go in any deeper than that. That's just a quick preview of that side of the coin. Well, thank you all for joining me on my class. I hope you were inspired to at least get the ball moving in Simulation. It's a quite powerful tool and a way to collaborate. Thank you all for joining me and have a good day.

      ______
      icon-svg-close-thick

      Cookie 首选项

      您的隐私对我们非常重要,为您提供出色的体验是我们的责任。为了帮助自定义信息和构建应用程序,我们会收集有关您如何使用此站点的数据。

      我们是否可以收集并使用您的数据?

      详细了解我们使用的第三方服务以及我们的隐私声明

      绝对必要 – 我们的网站正常运行并为您提供服务所必需的

      通过这些 Cookie,我们可以记录您的偏好或登录信息,响应您的请求或完成购物车中物品或服务的订购。

      改善您的体验 – 使我们能够为您展示与您相关的内容

      通过这些 Cookie,我们可以提供增强的功能和个性化服务。可能由我们或第三方提供商进行设置,我们会利用其服务为您提供定制的信息和体验。如果您不允许使用这些 Cookie,可能会无法使用某些或全部服务。

      定制您的广告 – 允许我们为您提供针对性的广告

      这些 Cookie 会根据您的活动和兴趣收集有关您的数据,以便向您显示相关广告并跟踪其效果。通过收集这些数据,我们可以更有针对性地向您显示与您的兴趣相关的广告。如果您不允许使用这些 Cookie,您看到的广告将缺乏针对性。

      icon-svg-close-thick

      第三方服务

      详细了解每个类别中我们所用的第三方服务,以及我们如何使用所收集的与您的网络活动相关的数据。

      icon-svg-hide-thick

      icon-svg-show-thick

      绝对必要 – 我们的网站正常运行并为您提供服务所必需的

      Qualtrics
      我们通过 Qualtrics 借助调查或联机表单获得您的反馈。您可能会被随机选定参与某项调查,或者您可以主动向我们提供反馈。填写调查之前,我们将收集数据以更好地了解您所执行的操作。这有助于我们解决您可能遇到的问题。. Qualtrics 隐私政策
      Akamai mPulse
      我们通过 Akamai mPulse 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、您的 Autodesk ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. Akamai mPulse 隐私政策
      Digital River
      我们通过 Digital River 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、您的 Autodesk ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. Digital River 隐私政策
      Dynatrace
      我们通过 Dynatrace 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、您的 Autodesk ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. Dynatrace 隐私政策
      Khoros
      我们通过 Khoros 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、您的 Autodesk ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. Khoros 隐私政策
      Launch Darkly
      我们通过 Launch Darkly 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、您的 Autodesk ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. Launch Darkly 隐私政策
      New Relic
      我们通过 New Relic 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、您的 Autodesk ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. New Relic 隐私政策
      Salesforce Live Agent
      我们通过 Salesforce Live Agent 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、您的 Autodesk ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. Salesforce Live Agent 隐私政策
      Wistia
      我们通过 Wistia 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、您的 Autodesk ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. Wistia 隐私政策
      Tealium
      我们通过 Tealium 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. Tealium 隐私政策
      Upsellit
      我们通过 Upsellit 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. Upsellit 隐私政策
      CJ Affiliates
      我们通过 CJ Affiliates 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. CJ Affiliates 隐私政策
      Commission Factory
      我们通过 Commission Factory 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. Commission Factory 隐私政策
      Google Analytics (Strictly Necessary)
      我们通过 Google Analytics (Strictly Necessary) 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、您的 Autodesk ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. Google Analytics (Strictly Necessary) 隐私政策
      Typepad Stats
      我们通过 Typepad Stats 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、您的 Autodesk ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. Typepad Stats 隐私政策
      Geo Targetly
      我们使用 Geo Targetly 将网站访问者引导至最合适的网页并/或根据他们的位置提供量身定制的内容。 Geo Targetly 使用网站访问者的 IP 地址确定访问者设备的大致位置。 这有助于确保访问者以其(最有可能的)本地语言浏览内容。Geo Targetly 隐私政策
      SpeedCurve
      我们使用 SpeedCurve 来监控和衡量您的网站体验的性能,具体因素为网页加载时间以及后续元素(如图像、脚本和文本)的响应能力。SpeedCurve 隐私政策
      Qualified
      Qualified is the Autodesk Live Chat agent platform. This platform provides services to allow our customers to communicate in real-time with Autodesk support. We may collect unique ID for specific browser sessions during a chat. Qualified Privacy Policy

      icon-svg-hide-thick

      icon-svg-show-thick

      改善您的体验 – 使我们能够为您展示与您相关的内容

      Google Optimize
      我们通过 Google Optimize 测试站点上的新功能并自定义您对这些功能的体验。为此,我们将收集与您在站点中的活动相关的数据。此数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、您的 Autodesk ID 等。根据功能测试,您可能会体验不同版本的站点;或者,根据访问者属性,您可能会查看个性化内容。. Google Optimize 隐私政策
      ClickTale
      我们通过 ClickTale 更好地了解您可能会在站点的哪些方面遇到困难。我们通过会话记录来帮助了解您与站点的交互方式,包括页面上的各种元素。将隐藏可能会识别个人身份的信息,而不会收集此信息。. ClickTale 隐私政策
      OneSignal
      我们通过 OneSignal 在 OneSignal 提供支持的站点上投放数字广告。根据 OneSignal 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 OneSignal 收集的与您相关的数据相整合。我们利用发送给 OneSignal 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. OneSignal 隐私政策
      Optimizely
      我们通过 Optimizely 测试站点上的新功能并自定义您对这些功能的体验。为此,我们将收集与您在站点中的活动相关的数据。此数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、您的 Autodesk ID 等。根据功能测试,您可能会体验不同版本的站点;或者,根据访问者属性,您可能会查看个性化内容。. Optimizely 隐私政策
      Amplitude
      我们通过 Amplitude 测试站点上的新功能并自定义您对这些功能的体验。为此,我们将收集与您在站点中的活动相关的数据。此数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、您的 Autodesk ID 等。根据功能测试,您可能会体验不同版本的站点;或者,根据访问者属性,您可能会查看个性化内容。. Amplitude 隐私政策
      Snowplow
      我们通过 Snowplow 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、您的 Autodesk ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. Snowplow 隐私政策
      UserVoice
      我们通过 UserVoice 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、您的 Autodesk ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. UserVoice 隐私政策
      Clearbit
      Clearbit 允许实时数据扩充,为客户提供个性化且相关的体验。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。Clearbit 隐私政策
      YouTube
      YouTube 是一个视频共享平台,允许用户在我们的网站上查看和共享嵌入视频。YouTube 提供关于视频性能的观看指标。 YouTube 隐私政策

      icon-svg-hide-thick

      icon-svg-show-thick

      定制您的广告 – 允许我们为您提供针对性的广告

      Adobe Analytics
      我们通过 Adobe Analytics 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、您的 Autodesk ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. Adobe Analytics 隐私政策
      Google Analytics (Web Analytics)
      我们通过 Google Analytics (Web Analytics) 收集与您在我们站点中的活动相关的数据。这可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。我们使用此数据来衡量我们站点的性能并评估联机体验的难易程度,以便我们改进相关功能。此外,我们还将使用高级分析方法来优化电子邮件体验、客户支持体验和销售体验。. Google Analytics (Web Analytics) 隐私政策
      AdWords
      我们通过 AdWords 在 AdWords 提供支持的站点上投放数字广告。根据 AdWords 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 AdWords 收集的与您相关的数据相整合。我们利用发送给 AdWords 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. AdWords 隐私政策
      Marketo
      我们通过 Marketo 更及时地向您发送相关电子邮件内容。为此,我们收集与以下各项相关的数据:您的网络活动,您对我们所发送电子邮件的响应。收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、电子邮件打开率、单击的链接等。我们可能会将此数据与从其他信息源收集的数据相整合,以根据高级分析处理方法向您提供改进的销售体验或客户服务体验以及更相关的内容。. Marketo 隐私政策
      Doubleclick
      我们通过 Doubleclick 在 Doubleclick 提供支持的站点上投放数字广告。根据 Doubleclick 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 Doubleclick 收集的与您相关的数据相整合。我们利用发送给 Doubleclick 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. Doubleclick 隐私政策
      HubSpot
      我们通过 HubSpot 更及时地向您发送相关电子邮件内容。为此,我们收集与以下各项相关的数据:您的网络活动,您对我们所发送电子邮件的响应。收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、电子邮件打开率、单击的链接等。. HubSpot 隐私政策
      Twitter
      我们通过 Twitter 在 Twitter 提供支持的站点上投放数字广告。根据 Twitter 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 Twitter 收集的与您相关的数据相整合。我们利用发送给 Twitter 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. Twitter 隐私政策
      Facebook
      我们通过 Facebook 在 Facebook 提供支持的站点上投放数字广告。根据 Facebook 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 Facebook 收集的与您相关的数据相整合。我们利用发送给 Facebook 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. Facebook 隐私政策
      LinkedIn
      我们通过 LinkedIn 在 LinkedIn 提供支持的站点上投放数字广告。根据 LinkedIn 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 LinkedIn 收集的与您相关的数据相整合。我们利用发送给 LinkedIn 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. LinkedIn 隐私政策
      Yahoo! Japan
      我们通过 Yahoo! Japan 在 Yahoo! Japan 提供支持的站点上投放数字广告。根据 Yahoo! Japan 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 Yahoo! Japan 收集的与您相关的数据相整合。我们利用发送给 Yahoo! Japan 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. Yahoo! Japan 隐私政策
      Naver
      我们通过 Naver 在 Naver 提供支持的站点上投放数字广告。根据 Naver 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 Naver 收集的与您相关的数据相整合。我们利用发送给 Naver 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. Naver 隐私政策
      Quantcast
      我们通过 Quantcast 在 Quantcast 提供支持的站点上投放数字广告。根据 Quantcast 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 Quantcast 收集的与您相关的数据相整合。我们利用发送给 Quantcast 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. Quantcast 隐私政策
      Call Tracking
      我们通过 Call Tracking 为推广活动提供专属的电话号码。从而,使您可以更快地联系我们的支持人员并帮助我们更精确地评估我们的表现。我们可能会通过提供的电话号码收集与您在站点中的活动相关的数据。. Call Tracking 隐私政策
      Wunderkind
      我们通过 Wunderkind 在 Wunderkind 提供支持的站点上投放数字广告。根据 Wunderkind 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 Wunderkind 收集的与您相关的数据相整合。我们利用发送给 Wunderkind 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. Wunderkind 隐私政策
      ADC Media
      我们通过 ADC Media 在 ADC Media 提供支持的站点上投放数字广告。根据 ADC Media 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 ADC Media 收集的与您相关的数据相整合。我们利用发送给 ADC Media 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. ADC Media 隐私政策
      AgrantSEM
      我们通过 AgrantSEM 在 AgrantSEM 提供支持的站点上投放数字广告。根据 AgrantSEM 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 AgrantSEM 收集的与您相关的数据相整合。我们利用发送给 AgrantSEM 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. AgrantSEM 隐私政策
      Bidtellect
      我们通过 Bidtellect 在 Bidtellect 提供支持的站点上投放数字广告。根据 Bidtellect 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 Bidtellect 收集的与您相关的数据相整合。我们利用发送给 Bidtellect 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. Bidtellect 隐私政策
      Bing
      我们通过 Bing 在 Bing 提供支持的站点上投放数字广告。根据 Bing 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 Bing 收集的与您相关的数据相整合。我们利用发送给 Bing 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. Bing 隐私政策
      G2Crowd
      我们通过 G2Crowd 在 G2Crowd 提供支持的站点上投放数字广告。根据 G2Crowd 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 G2Crowd 收集的与您相关的数据相整合。我们利用发送给 G2Crowd 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. G2Crowd 隐私政策
      NMPI Display
      我们通过 NMPI Display 在 NMPI Display 提供支持的站点上投放数字广告。根据 NMPI Display 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 NMPI Display 收集的与您相关的数据相整合。我们利用发送给 NMPI Display 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. NMPI Display 隐私政策
      VK
      我们通过 VK 在 VK 提供支持的站点上投放数字广告。根据 VK 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 VK 收集的与您相关的数据相整合。我们利用发送给 VK 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. VK 隐私政策
      Adobe Target
      我们通过 Adobe Target 测试站点上的新功能并自定义您对这些功能的体验。为此,我们将收集与您在站点中的活动相关的数据。此数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID、您的 Autodesk ID 等。根据功能测试,您可能会体验不同版本的站点;或者,根据访问者属性,您可能会查看个性化内容。. Adobe Target 隐私政策
      Google Analytics (Advertising)
      我们通过 Google Analytics (Advertising) 在 Google Analytics (Advertising) 提供支持的站点上投放数字广告。根据 Google Analytics (Advertising) 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 Google Analytics (Advertising) 收集的与您相关的数据相整合。我们利用发送给 Google Analytics (Advertising) 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. Google Analytics (Advertising) 隐私政策
      Trendkite
      我们通过 Trendkite 在 Trendkite 提供支持的站点上投放数字广告。根据 Trendkite 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 Trendkite 收集的与您相关的数据相整合。我们利用发送给 Trendkite 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. Trendkite 隐私政策
      Hotjar
      我们通过 Hotjar 在 Hotjar 提供支持的站点上投放数字广告。根据 Hotjar 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 Hotjar 收集的与您相关的数据相整合。我们利用发送给 Hotjar 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. Hotjar 隐私政策
      6 Sense
      我们通过 6 Sense 在 6 Sense 提供支持的站点上投放数字广告。根据 6 Sense 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 6 Sense 收集的与您相关的数据相整合。我们利用发送给 6 Sense 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. 6 Sense 隐私政策
      Terminus
      我们通过 Terminus 在 Terminus 提供支持的站点上投放数字广告。根据 Terminus 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 Terminus 收集的与您相关的数据相整合。我们利用发送给 Terminus 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. Terminus 隐私政策
      StackAdapt
      我们通过 StackAdapt 在 StackAdapt 提供支持的站点上投放数字广告。根据 StackAdapt 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 StackAdapt 收集的与您相关的数据相整合。我们利用发送给 StackAdapt 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. StackAdapt 隐私政策
      The Trade Desk
      我们通过 The Trade Desk 在 The Trade Desk 提供支持的站点上投放数字广告。根据 The Trade Desk 数据以及我们收集的与您在站点中的活动相关的数据,有针对性地提供广告。我们收集的数据可能包含您访问的页面、您启动的试用版、您播放的视频、您购买的东西、您的 IP 地址或设备 ID。可能会将此信息与 The Trade Desk 收集的与您相关的数据相整合。我们利用发送给 The Trade Desk 的数据为您提供更具个性化的数字广告体验并向您展现相关性更强的广告。. The Trade Desk 隐私政策
      RollWorks
      We use RollWorks to deploy digital advertising on sites supported by RollWorks. Ads are based on both RollWorks data and behavioral data that we collect while you’re on our sites. The data we collect may include pages you’ve visited, trials you’ve initiated, videos you’ve played, purchases you’ve made, and your IP address or device ID. This information may be combined with data that RollWorks has collected from you. We use the data that we provide to RollWorks to better customize your digital advertising experience and present you with more relevant ads. RollWorks Privacy Policy

      是否确定要简化联机体验?

      我们希望您能够从我们这里获得良好体验。对于上一屏幕中的类别,如果选择“是”,我们将收集并使用您的数据以自定义您的体验并为您构建更好的应用程序。您可以访问我们的“隐私声明”,根据需要更改您的设置。

      个性化您的体验,选择由您来做。

      我们重视隐私权。我们收集的数据可以帮助我们了解您对我们产品的使用情况、您可能感兴趣的信息以及我们可以在哪些方面做出改善以使您与 Autodesk 的沟通更为顺畅。

      我们是否可以收集并使用您的数据,从而为您打造个性化的体验?

      通过管理您在此站点的隐私设置来了解个性化体验的好处,或访问我们的隐私声明详细了解您的可用选项。