Name: BricsCAD for Pressure Vessels: Bridge the Design-Analysis Gap
Uploaded: 2026-08-20T06:52:11.097Z
Duration: 1 h 17 min 12 s
Description: BricsCAD for Pressure Vessels: Bridge the Design-Analysis Gap

Transcript for "BricsCAD for Pressure Vessels: Bridge the Design-Analysis Gap": Hello, everyone. So we are waiting for couple of more guys to join in. So we'll be starting in next five minutes again. Hello, everyone. Good morning, good afternoon, good evening to everyone who has joined us from different parts of VoIP. Yeah. I welcome you all to this webinar on fixed card for excited, to share my thoughts with you guys. I think I think we have, both of the attendees have joined now. So, let's start this, Adena. Now, a moment to do all to this this presentation, specifically on the pressure vessel domain. So during during the course of presentation, we are going to look at different solution, catering, different needs in the industry, especially the process industry. So if you're from process industry, design engineer, process vessel, equipment designer, this will be right and just for you. So I'll be able to introduce myself. Yeah. Okay. So my name is Vibha I am the industry consultant. So I have a background in mechanical engineering. And, just like everyone, I started my career as a design engineer working a lot into the process industry for development, then working for different projects across the business industry, oil and gas. I think HPC would be a lot of other stuff. So, so it's more than ten years that I've switched as an industry consultant, you know, specifically into the, CAC and PLM domain and the organizations to, evolve to grow, by adopting, the digital world, moving them into a automation direction where data flows correctly. Okay. Let me let me just put it on my I think there was, some issue with my mic. I hope it's clear now. Yeah. Great. Great. So, yeah. Look. So I was introducing myself, you know, with my background in mechanical engineering. And, when I started my career as a design engineer, worked with different projects, across the process domain, oil and gas, piping. You know? And then I switched, into industry consultancy, serving more than ten years with with the domain like that, PLMCA, and, helping organizations grow, you know, across different ASU audience. Now, okay. So, so this is the agenda for today that we have. We'll we'll understand the gap in the industry, in the process industry for pressure vessel line. What are the challenges? Where does the design and the analysis, the engineering in disconnects? We we are that. And, then we will move into the two d design, you know, because a lot of because a lot of, let me let me switch my earphones then. Okay. I have switched my earphones, my microphone now. I hope the audio should be clear. Yeah. Okay. Okay. Can someone from the chat, help me, with this? Am I clearer now? Okay. Let's let's go ahead then. So we were actually discussing today's agenda where we'll first focus upon understanding the design and analysis gap, understanding the challenges specifically in the deeper shell versus industry. And oh, let me just share my camera. And we'll understand where exactly the design and the engineering disconnects. I know totally. Then we'll move into the two d drafting part of this of it because a lot of, you know, industry, segment are still on two d platform. And, this is this is where we are we're gonna look at different set of tools that we have under BICS card. And then we'll just turn off my radio for now. And then we will move into the intelligent three d modeling, you know, designing vessels with VIX CAD. And then then we will understand how we can build the gap between the design and the analysis and the engineering with the integration platform that we have. And then we'll understand how this is going to help people, you know, to improve their business to and and understand the overall business business impact that it has, with with this kind of solutions. So before, you know, going there before going there, I have few questions for you guys to understand from you. You know? How are you currently working in this industry segment? So there would be a poll popping up on your screen. I will request you all to, you know, answer those poll questions. So we'll we'll be waiting for you guys to, you know, share your details on the questions. The first question is on, to understand how do you currently design your pressure vessels. So is it a two d drafting or three d modeling? Is it a mix of both, Or do we use a special pressure vessel design software? Or do you outsource your design? And then, we also want to understand from you what are what are the biggest challenges that you face, while doing your pressure vessel projects. So, is is it creating efficient drawings? Is it managing design changes? Is is it the analysis and design data transfer, compliance, and documentation? You can you can choose, you know, whichever, is applicable to you as as a challenge. And yeah. And the next, poll question that we have for you guys is which tools do you currently use from this for your pressure vessel projects? So then you can pick all the tools that you currently use. No. So I have, yeah. So we we we have received answers to our poll questions. And And, based on the, based on the poll, what I could see is most of, the folks here, they use a mix of this workflow, which includes two d, three d, some special design softwares. At the same time, you know, the biggest challenge is it's it's it's always going to be creating drawings because drawings is an important element in the entire process industry. And managing design changes across these drawings, because lot of, the industry, it depends on different softwares. So exchanging that data across these, softwares is going to be difficult. And, you know, whenever there is a there there is a revision or something to manage that, it becomes difficult. And the compliance and documentation of you know, there are different codes and different standards in this particular industry. To come to be compliant be with that, it's it's it's a difficult it's it's a challenge for everyone. So, so from the pool, I can I I can see that, you know, most of the device they use different tool, different analysis tool, different modeling tool? So we we have our, own ecosystem under Bricks, under Octave, which is which has the BWG foundation. Then on top of that, we have Octave 40, which is the three d design engine. And then we have the analysis tool, which is the pressure vessel for the code compliant analysis. Now you you you may have you may have heard, you know, the these set of tools earlier as Pivi Elite, CADWorks, BricsCAD. But now they come under the single umbrella of Octave. So that's the reason it's now one platform. Three pillars, but one platform where you have the platform on Octave Bricks card, which is the DWG foundation. It's the industry standard DWG. It has, you know, a two d, three d, PIM, mechanical, everything into a single environment. Plus on top of that, you can include a lot of your APIs. You can include, you know, different customizations, different plugins, Plus the second pillar, which is Octave 48 that sits on top of BRICSCAR, it is a specialized intelligent three d plan design solution. You know, having different models for structured design, different models for, reviewing, for equipment, you know, and and all that. Plus, we have the analysis platform, which is Aspect Pressure Vessel. Earlier, it was known as PBLEEP, and, it is a code code compliant analysis engine that we have compliant with different codes, which are popular in the process industry. Now everything that you see, it all comes under Octave. So what is Octave? So Octave is the, new spin off from Hexagon where all of these solutions into different domain, they come under Octave. And instead of having it as a, you know, different unparalleled solutions, we have it into different, verticals. So there are there are four verticals where Octave scales the entire data and intelligence. It's designed, built, operate, and protect. So there are different solutions in the Octave umbrella, and and the design build, operate and protect. But BricsCard, it lies in the design part of it where, BricsCard has a has an entire solution, as a TWG platform for two d, three d, BIM mechanical, everything can help leverage you, in terms of documentation. So talking about BricsCAD, we all know that it's a familiar high performing two d and three d CAD platform with the DWG support. So it's it's a quick switch, from any DWG environment with the powerful tools that Brickscut has, and the cost it takes to migrate, it's quite less. So that is the reason most of our customers, they prefer migrating to BricksGuard. Now BricksGuard the the the most important part of why why people migrate from BricksGuard is the is is the part where BricksGuard excels into design to production process. So we we can do the entire, you know, design process, from the initial design to the production. But what BricsCAD excels into with the fastest part from the refinement, development, and the detailed outputs, detailed documents. So open opening, optimizing, detailing, and sharing. This this is the production documentation that we support. So moving ahead, we are going to also look at the pressure vessel challenges that we generally face into the process industry. So that basically includes complex design because, although it meant has multiple standards, but there are requirements of some customization, some nonstandard elements of your equipments, which which requires modification. And then it also need to be code compliant. Well, this is this is going to be used in real world scenarios. You know? So so the design, becomes very complex comparing to multiple components plus, the workflows. Every every industry would have different workflow. Every sub industry, every company will have different workflow, and it's fragmented into different departments. Like, for example, someone who's an OEM in this field would have a different workflow. Someone who is at the mid market level, they would have different workflows. They have to communicate between the OEMs and their manufacturing and the design. Someone who is a fabricator would have different challenges at his end, and he would have different way of dealing with things when it comes to production and fabrication. Documentation. So this is the, important part where most of the design engineers, they feel pressured is the fabrication drawing, you know, that they create. So pressure vessel, it it all revolves around the fabrication drawing. Any project that you do, you need to you need to have your, drawings in check, which should include the fabrication detailing, bill of material, all the revisions, whether it's the latest revision or not. And because of these challenges, you know, because, of so many stuff which goes disconnected, there are a lot of impacts on the project, which involves rework, you know, reimporting data, creating drawings again and again, then the data being inconsistent. So this is where we lose a lot in the engineering side. Okay. So where exactly the engine in time is lost is because there are hands off gaps between every stage of this workflow, whether it be p and ID, conceptual design, or you design an equipment from the concept stage, you know, for some custom requirements or the detailed tool drafting for which, it takes a lot of time and, you know, it it's quite challenging to compel on that. Then, you know, because, some of the mid market level, they also use three d modeling, which which then goes for an analysis into softwares like PV light, for code operations. And then again, there is the fabrication point. So once once it is code compliance, it's it's good to go. There are detailed fabrication drawings that need to be created. And in each of these hands off, there are gaps. And this is and these gaps are because of the, geometries recreated every time after analysis. So if a if a geometry feels in analysis, we recreate that. We recreate those drawings. We recreate the fabrication drawings. You know, then we need to manually adjust stuff on the drawing part, on the model part. So so this way, you spend a lot of time in reengineering, I'll although it's going to be the same project that you are working on. What if we could save this time by making a data transfer, making an intelligence between the design and engineering so that you can you would reuse the same information, between these two domain design and analysis. Well, that's possible by making your three d model centric approach, for the entire projects. So once the three d model, if if it becomes the main source of truth, your drawings, your analysis, your, deliverables, all update because of the changes that you do on the three d model. And that is the key power that we have under the connected ecosystem, of Octave. So, with this workflow, in the Octave platform, we have the two d drafting, the drawing part, the P and IDs, concept design, pure duty stuff goes on to big CAD. Three d modeling that goes on to big CAD mechanical for intelligent vessel assemblies. And 43 d works, CADWARKS, where you, design an equipment using the equipment model that runs on top of Brickscad Mechanical. So, if there are any custom adjustment that you need to do, that can be done using Bricscan mechanical capabilities on top of the templates in the 43 d works, equipment design model. And because it comes under Octave ecosystem, PV light is is still part of that, which can open your equipments, analyze it, based on the analysis. It can update thicknesses, dimensions across the three d model, and that is going to update the fabrication drawing in BricksCAD. So this is what we are going to showcase you today, how an connected engineering ecosystem works from the design to analysis to fabrication. So, BixCard, being the foundation of that, closes the gap with the DWG platform. It has a lot of capabilities. And by the way, Brickscad offers these capabilities for everyone, from someone who is who who who is a two d capabilities, as well as, you know, someone who is who is working on projects for OEMs, you know, having lot of deliverable and challenges at their end. Now, with with the addition of 43 d works and aspect pressure vessel on the Octave ecosystem, you can design once, reuse the the engineering data, analyze faster, and deliver quicker results. So let us go into the first part, which is the two d, to how how how smartly you can make two d drafting easy. You know? So so, generally, when it comes to two d drafting and pressure vessel, you have, you know, general arrangement drawings, fabrication drawings, nozzle orientations, component detailings, assembly drawings, and all of that. So, as I was looking at the pool, most of the, you know, let's see. They rely on two recast softwares, for this, and that's that's the the tradition that we follow. However, Vixcard offers you the same capabilities. Let me take you to the Vixcard window. So here, I have my VIX card window. I'll just open a particular drawing interface. So this is the drawing interface of VIX card. You know, you can customize it as you as you want. You have different style images on top. You have the property panel, layers panel, all of that on the right hand side. Then you have the status bar, the command line. It is capable of doing any command, like, say, like, any line. You can do that. Then at the same time, you can, do a lot of personalization in the interface. Now, this is this is, something which is very standard across two regards solution. But what Bricks can offer is AI powered productivity tools. So that helps user to make quick changes on the two d side. Even even though they're not using anything on analysis, they can they can still work faster on the drawings with the magic Brickscutterings with AI powered solutions. Now let me take you through that. So one of one of the, you know, key, capability that we have on BrickStaff. For example, if I do, rectangle, you know, it it's it's quite simple, but we, do it. It's the same, same interface, and and the same command that that we basically use. Now, for example, if we, start by setting up this particular link, you can see that the rectangle that I'm going to create is automatically aligned to this particular flange flange that we have. So based on that, I can take references and create entities. Now on these entities, if you notice that there is a small pop up on my window, if I hover over it, which is the quick properties that we have, plus road or tips, but I can quickly access the layer that it has. You know, if I can change the color, I can change the layer, length, and area that it captures. On the left hand side, I have this AI powered suggestion tool called a squad, which can quickly, you know, give me certain set of commands based on a machine learning algorithm. So I I I can use any particular command without moving to the pen or to or typing on the command line. Now that, takes us to the first probably tool, which is manipulate where you can, you know, move and replace easily. You can rotate them on the go instead of using your regular rotate. You can scale them, scale down. You can take a mirror off it. Or if I want to copy this, I can quickly copy that with the same handles. Or if I want to change the scale, I can quickly do that using the scaling handles that we have. You know? So so it's it's quick manipulation of your entities. I want to make multiple copies of this. I just hit r key on my keyboard, place it, and that's that's going to create multiple copies of this on the go. At the same time, when it comes to changes, or creating entities on a two d drawing, it becomes very difficult, to, while adding a particular component, you need to rework a lot. For example, here on this particular wall that I have. So this is this is, like, about, you know, couple of 23 entities. And if I want to copy it somewhere, to a wall like here, I need to clear out a lot of, this this particular part of my pipeline. However, the copy guided tool that we have that easily captures the intelligence between the two d components. And then while I'm placing it, it it is automatically going to snap to similar entities, taking references from the previous data. I can align it as as I want. I can place it at a specific distance, let's say, 300. And it's going to patch everything up. Don't need to worry about that. Similarly, we have move guided where if I were to move, certain entities, for example, if I move this wall to somewhere else, so you see how it how it automatically changes the orientation based on where we are placing it. So this is quick manipulation that we do on our training. Similarly, now, Brickstar also has something called as undo an entity based undo. So or a history based undo. So where on any particular entity without even worrying about the other parts of my design, which I have recently changed, I can I can go back into the entities for this particular entity? If I go to my property window, there is this history where I can go back to certain steps, take it back to certain steps where it was moved to a particular area and then, changed its color. Now you notice that the color moves back to its original condition without disturbing this stuff that that I'm doing here. So that is something which is which is a key when it comes to changes and to replicate without worrying about regular and do, stuff. Okay. We have law of such AI powered capabilities. One of that is, you know, the, the the power to capture intelligence. So speaking about capturing intelligence, we have drawing explorer, which captures all the assets that you have in your drawing, layers, dimension styles, line styles, text styles, all of that. In fact, if if you're doing project based on your previous project to set that set up that project, you can actually capture, you know, different entities, from the drawing explorer, copy them to new drawing directly and just facilitating the copy and pasting it in into the new drawing. Now, if if you notice within these assets, there are couple of stuff like blocks. You can quickly check have a check at different blocks that you have in that entire drawing. For example, here, I have two blocks, front and top. Which represents here the, the the the front and the top view. These are blocks. But if you notice on the left hand side, one of my block, which is, which is supposed to be a block for the side of my vessel. It doesn't appear there. It's still certain entities. And here on this particular side, if I select, it's it's similar set of those entities, but about four fifty one entities. So what I can do is I can ask BricsCAD to capture this intelligence using BlockFi. And, let's see if I select these set of entities, capture these set of entities in in my entire drawing, and convert them to a block. So it's going to identify everything, convert this into a block. I can just simply give a name, let's say vessel, underscore site, replace it quickly. Now you see all those four fifty one entities in my entire drawing, I've been replaced with the block call list vessel side. And even at this particular complex area, I can, you know, easily capture the blocks which were created. With the previous, it was very difficult. Similarly, you know, instead of me selecting entities, I can also ask PIXCAR to detect matches with the existing blocks. It's going to capture all of that based on the existing blocks and the set of entities and convert them into blocks. And now, you look at that everything which relates to certain blocks on my drawing is now converted into a block. So well, I can easily, you know, move these entities on the go. Yeah. So this is the intelligence that Bricks can be brings even on the TUI side. So it's a native platform, familiar drafting environment that you have. But I know, it it is flexible with customizations and revision handling. And with the AI power tools that we have, like Blockify, Manuplay, CopyGuided, you know, it's it's it's a lot that you can do. Plus there is there is an important rule which I want to showcase you, which is the drawing. So, majorly, when you work on larger drawings, it becomes very difficult. And this is where the a, drawing health comes into picture. So it has certain routines that can help you to quickly, you know, reduce the drawing size, fix errors in your drawings. If I just add this, it's going to run, you know, couple of commands on the go. I'm going to fix a lot of that. And next, within certain weeks, you'll get a complete clean drawing fixed of all the errors. Reduce size. If there are any portages that it needs to do, it would be done. So on the drawing management, it basically improves the overall drawing quality and consistency. Now moving to the next part, which is the three d modeling. How big can handle three d modeling? So that is through a solution or less, mechanical, where you can design the entire pressure vessel, the shell head, orient different nozzle, flanges, supports, you know, with a manhole, all the internal components, agitators, and all that. So let us have a look at BricsCAD, how how that is in BricsCAD. So BricsCAD offers you these, capabilities of direct modeling, you know, primitive based modeling where where I can take a primitive, specify the diameter that it requires, and then I can specify then I can move to one more, primitive for the shell of my model, which is, where I can place it as I do it for the two d entities. But remember here, the interface, it looks similar to the two d drafting interface. It has command line. It has, the, you know, the ribbon style menu. It has the same set of set how you access these commands, but it works on three d models. It works on three d commands. The same same tools that you do do for flex, for two d entities that also works for three d entities. You get you can move with your regular move command, copy command. It's exactly the same. So this bridges the gap when someone who wants to move from two d to three d environment and where he needs to learn new set of commands for three d. He doesn't need to do that now because of risk scan mechanical, which offers you the same interface, same UI of two d, but more powerful with three d modeling. Now here, we have designed a vessel, with the dish head and dish head, specifying the accurate height for for this particular vessel. Now we need to divide this into a dish shell dish configuration, for which we are going to slice this model up, with with respect to certain entity. So we we can either pick references, from the existing edges that we have in in our model. So for example here, I simply select these two edges, and, you can see that the distance between them is about 800. I can convert them into two d entities, and then I can using using the move command, I can place them at the straight face of my pressure vessel, which is at 25 millimeters. And then using the slice command, I am going to slice this particular model into a dish shell dish configuration. So, the tool for cutting this is going to be those circular entities and which is going to cut that into two different bodies now. Similarly, I'll do it on the bottom side of my dish. Now once this is done, I can simply remove these entities or hide them, on the go. So we have this dish shell dish configuration. Now Bricsco offers you a lot of, different ways for modeling. It can be a bottom of modeling where you pull on a component, or you can directly model a assembly component inside the assembly in environment. So at at this particular amount of time, I'm going to see this as a particular step in my, in in my location. Notice that it is it is still the DWG, you know, platform that you have. Dot DWG is going to save whether it it's still going to be a three model, but with the DWG file format. Now I can using the direct modeling, I can create entities on the go. I can specify the accurate height for my flange, and, I can utilize common component libraries which I have on the picture, which are intelligent, with different parameterization where I can include the diameter and the depth of this hole, and then I can place it on my flange wherever I require. Now notice that once this is added, this is going to punch a hole inside my three d model. And when I want to replicate this across everywhere, it's going to be the same array command that we use only to the entities to specify the the polar array. I can specify the item which is 30 holes, and this will be added. So it it is as good as adding holes on the two d drawing, but the same command works for three d. Now taking reference of this plan, I'm gonna create a gasket here with a distance of three millimeters And now notice that these are four different bodies, the shell, the dish, flange, and the gasket. Now instead of bodies, I'm going to make them components by saving them as a component either into my local rep in in as as a locally inside of my assembly environment or as an external file. So here, I'll just save it as a, external file, not data. Same way, we'll do it do it for the flange. You notice that mechanical browser keeps a track of all the components that we have created. Similarly, we'll we'll create a flange component by converting that body into a component. So converting a body into component makes it a mechanical component where you can impart a lot of properties like material data and our description, how it's it's supposed to be shown in the bill of material because later on, this is going to help us create our deliverables. So moving, ahead, you can you can see that these these are three set of components that we have in our model. Similarly, if I want to use a bottom up approach where I want to add a flange and meet it here, I can quickly do that, see, by utilizing the three d constraints that we have on the go. So here, I'm just placing this flange, and locating it exactly below my gasket. So it's a flange gasket configuration that we have created. Now, moving ahead, we will we will we will add few more entities. So I'm going to insert a leg assembly to this. So this leg assembly, is is basically a single part with three bodies, welded bodies. Now the same, we are going to pull an array across our model specifying four items, giving the axis of rotation and, relocating it at an angle of 45. So it's it's pretty similar to the two d environment. You notice that the, array that we create, it creates a parameterization on my, mechanical browser so that tomorrow, if you want to change the number of elements of this array, that can be quickly done using the mechanical browser. Here, we are going to just create an angle, for this at 45 degree. So it rotates at 45 degree. Next. Now now we have our base of my facility, but any vessel is incomplete without having nozzles, manuals, and other details based on the processes that that includes. So that is something that we are going to add, using the same, set of tool insert component where we have these different nozzles available, and we have a look place it. Now the beauty of BIXCAR is because it used dynamic UCS. Whenever you're going to place a nozzle, you can either specify the point at which the nozzle is placed. And these nozzles, you you see some areas in red color. These are smart components. It smartly cuts a hole inside my dish wherever I'm placing it. You on top of that, we can add one more nozzle, which is, the center of this this particular top flange. Then we are going to one more, add one more nozzle, which is the b, where we can we can place it at a specific point, specific height. So next, we will, please after placing this nozzle, we are going to place some whole connections, for the process to enter inside our equipment. So in in this case, I'm going to utilize the three d snap. So here, I'm just creating certain points at the intersection between my line and the surface. Now these intersection points, with the help of these points, I can then locate the nozzle instead of, you know, entering those points here. So currently, I'm just hiding this. And these points that that we have, on my screen, we we can increase the size of that just by changing the color and changing the PD mode to a different value. So here here I I'll just enter PD mode and increase the value of this point. Now after we have added, these points, let us, go to hold and create a hole for, the aggregator. So here using the same hole command, I'm going to, you know, place a hole at the center where the agitator inserts. The the shaft is going to insert and specifying the diameter as one fifty two and, a depth as required. So you notice that as I, move over that particular point, it snaps and orients my hole automatically based on the surface of my pressure vessel. So this is where the dynamic capabilities dynamic usage capabilities of VCSAD three d comes in the picture. It it automatically analyzes the surface and orients the model, the connections on the go. So then we are going to add, a a manhole over here, snapping it to that particular point. Yeah. So you see that how manhole exist inside the the dish. Similarly, we'll we'll add some connections. So notice that for adding these connections, I'm not adding any hole for now. I'm just placing these connections on this point. And because these are smart models, it's it you see that it's automatically going to cut hole inside my dish. So this is the power that you have with the Brickscad smart capabilities. You don't need to worry about that, the the end connections, the attachments. It is all going to be taken care of. You see the holes which are automatically created in my dish based on, this. Now if if I want to, rotate this particular connection, you will notice that the hole also rotates with it. So this is the power that PIXCAR brings when it comes to reworking, redesigning. Making it much simpler, making it much easier, making three d modeling available for everyone. So next, we are going to just save this as an assembly. And on top of that, we're going to add certain fasteners. So Brickscad also comes with the library of different components, bearings, bolts, nuts, and all that. From that, we'll just pull out a body three component, that four zero three three, and it's we're going to place it on, on one of the holes on both the side of my flanges. Next, we are going to add a third start over here, placing it from DIN standards, placing exactly at the center of my whole. So because these are configured components, you can select the required size and length. Let's say m 16 by two that we require a total length of 90. So we can simply place that. And after placing, I can adjust the height of this, using our manipulation tools. So in all, this is a very easy way of modeling pressure vessel, with this familiar capabilities of two d. But in this way, you are going to design three d models, three d pressure vessels, which is not going to be used only for, you know, reviewing purposes. But later on, we are going to create deliverables like drawing, bill of materials, you know, analysis from all of this. So what we have seen is the, direct modeling capabilities, parametric modeling capabilities, you know, assembly modeling capabilities of GICS card, how how we we can use the component properties, smart components, how you can use reuse the design elements, fasteners, holes, and all that from Brickscut Design Library. So this this was just the first step of an intelligent model where we created a a cell assembly with smart components. Next, we are going to see how we can create deliverables. Now before going there, let me add, some more complexity to it. So I'll just unlink the bottom shell, from these two holes so that the holes, after, the entire, approval, it remains intact, so that this is all separate components and it disconnects from that particular, link of the connection. And I'm going to save this as a separate file. And once we save this, we we're going to open and check it, for the whole inclusion. So I can simply open any any component from my mechanical browser and, you know, review it on the go. So to make some changes, I can do it here, and that would be replicated in my assembly. Let us add a material to this. So in this case, I'm going to add material here, ASTM a two four zero three one six. Adding the properties so, this way, you you have a library components and you have a custom component which you can add on, which would be placed in your library, which can be reused every time you you want to use it. So once this comp this material is added, it's we can calculate mass properties. Speaking about properties, we have we have, the 10% or spherical, description that you want to add, if you want to include in in our bill of material. So this is the area, mechanical properties, where we can capture a lot of properties from components, from assemblies so that they appear correctly in our drawings and our beloved material. Now moving ahead, we will, save these changes so that it replicates in my drawing. And I'll simply update this so that the changes that I've done as a company name at material level, it appears in my actual assembly. And now we are going to create the drawings for this. So I'll just, paste up a little bit. I'm just adding a particular agitator to this, agitator assemblies, shaft. So this is the drawing environment what we have, where we can create the layouts into the same environment with the model space and layout space. So in the layout space, we can specify different views with the base view command. So where where I'll be placing certain views as required, scaling them as required, you know, dip depending upon what how how how you want to place them in my drawing. So this is the, top orientation view, that I basically require in my pressure vessel drawing. Similarly, I'll, go here, go to the, same base view command. And at this time, for the entire model or a specific assembly or a specific component, I can choose which particular component I want to pay the drawing off. But in this case, I'm going to select any one of that, and I'm going to create a view in my drawing. Now, based on that, you you basically add different orientations for shaft, different components, different weld weld welded components to show in welding details between them. It's it's it is as good as just selecting a component and placing the required orientation that we want. If you want to take a section of this, we have automatic section views where I can quickly create a section plane, placing a section plane over here. And that is going to capture the cut plane, the the cut sections of this vessel, including all the components which are there in this particular view, cutting it into half. So so we we've cut that and simply will rotate this to what equal orientation match my my top view. Similarly, we'll be adding certain more views over here. Plus, now the power of quick start, it offers only three d environment is actually, the part where you can create layers. You can create, you know, all the daily links just like how you do in your two d interface. You can play with layers. You can play with colors. There is no restriction when it comes to detailing, but with with with with the Trickscad. So the best part is the drawing views, which are very complicated to create, those are created automatically. But the you have the complete control over creating entities like annotations, central lines, dimensions, so datums and all that. So so these dimensions and because these dimensions are linked to the model data, if the model data updates, dimensions for us to update automatically. So this is the, you know, power that we offer with with with with with quick scan of completing a detailed fabrication drawing, but, making it faster by automatic automatically creating views. Now if if you also want to include below for into this, that also we can quickly do. So where you can create a below for the at different levels even at top level or at no at sublevel components. So if if you want a complete bill of material, you you can you can select how you want to place it. It is going to capture all the components that are there in my drawing, and it's going to, you know, get all the quantities and different properties that you want to include in your bill of material, like the description, the material data, the weight of my vessel, and, and all the components. So everything is going to be captured. Plus, based on the bill of materials, if I want to capture, the ballooning, which relates correlates to the bill of I can quickly do that. So one option is, manual ballooning where I can select the component, place a balloon, and it's going to automatically capture the exact item number in my bill of material. And the second way is where I can automatically create balloons, just by selecting a set of entities and placing it on the go using the auto balloon option that we have. So this way, you basically from an intelligent model, you create create automatic views with the deliverables, like balloonings and bill of materials and the entire fabrication package. So it's it's basically one intelligent model that drives every fabrication deliverable. Now why this kind of approach matters is so it it offers visual validation. First of all, you can identify the assembly problem, the soft node problems at the early stages, better collaboration when it comes to, you know, sharing this data with clients, with, with the fabrication team, it it it becomes easier. It becomes more clear and changes. So because we update the model and those updates the downstream documentation, it becomes very easy to do a change at one particular point that's going to update everything. And this is going to help you deliver your projects much more faster by reducing the repetitive, you know, drafting. So how do we connect the design analysis now? So this is where the Octave ecosystem comes into picture with bricks care, bricks and mechanical, on which on top of which we have for, Forte awkward three d works, the equipment design module and which runs with the analytical part, which is pressure vessel, PV, if fleet. We have a workflow where any analysis that we do that updates the model into the brickscal environment. And if there is any changes from the design, that flows into documentation. So we don't need to recreate the model. You don't need to, you know, manually transfer this information. So this is this is how the whole magic works. So you have period light and Cadworx. So they the the data can be interest exchanged within this. However, Cadwell tech works on top of, BricksCAD. So this is the environment that we have. This is this is the BricksCAD environment, but with the Cadwell's equipment model. So where we can simply specify different areas of my equipment and then compile them with, particular parametric standards, changing the dish sizes, the support sizes, and everything. I can manage that. And, with with this, I can specify not nozzle details and, the description detailing, all the requirements, that I need before math beforehand analysis. Now I'm moving to PV light environment where the vessel is exported from Cadworx to PV light. We are based on the analysis, you know, we might find out that the thickness is not sufficient or code compliant. So we change the thickness on this part. So this this changes thickness on the analytical model here, which is the PVD file. Now once we run this analysis, we update the three d model into Brickscad using the p v rate model, and that updates the thickness. And then if there are any changes, let's say the agitator if you want to add. So that is automate that is added with the regular mix cut mechanical capabilities, three d constraints, and all that. You know? And this this particular extent that we are going to add, we can again reanalyze into the PV led environment. So this is how the exchange happens by directionally between the scattered environment and, the PV led environment. So we we had so so with with the title, when it becomes much easier to design the vessel because of precreated templates. So this is where we export that particular model, into p v d v file, and then that can be opened into p v lite. So you you notice that any custom equipment that you create in the brief environment, it is going to be exported as a p v d v file into the, p v line environment. So that so this way, the the problem that p v light, cannot create a complex model that is so it is. Now let us see how things updates on the drawings end. So because we have bricks can mechanical into picture, so when you run the analysis in p v, right, and let's say there is there is some some changes, that that happens on the p v rate part, those are reflected back into the into the, BIX catalogs environment. And here, if if you want to include certain areas, those would be included, by regular Wix catalog capabilities of adding needs and constraints. You know? Then you can capture, whether there are there is any, interference risk between the components. You can highlight that and based on which you can make the model changes. Now after these, changes have have been modeled, you you update these changes in the three d model. And because Brickscut can create automatic drawings, these changes are automatically reflected into my drawing environment. The same way we create those points. So this is the end part of it where the, changes that we do in the PV light or catalogs that reflect because of the BRICS CAD DWG environment. So we had this particular vessel with all the re detailing in BRICS CAD, working on top of a Cadworx model and model using, you know, direct modeling techniques, what we saw. Then the internal dealings that we can add. And that basically updates the entire fabrication drawings, the bill of material, different views that we have, the material list that we have. So it's it's basically, you know, you design once and you analyze with confidence because you can reuse your data. You can, you can have the entire accuracy when it comes to engineering, and this is going to improve your productivity, and nursing models much faster. So you don't need to even manage the part where the thickness change in the PV light that you need to manually update in the model. That is also going to be captured using the, PV light, PVDB input export functionality. So how this increases the business value across the entire organization with different department, different teams, engineering, project management, business leadership. And so this this way, BricsCAD, Octave offers one particular workflow across the entire industry. So even if someone is very small, fresh impression vessel fabricator, we do have a solution for that, which is only on the two d side, which he currently needs. In the time he reached the stage where he's at the EPC projects or as a as a engineering consultant level where he can use the design and analysis combination or, at larger OEMs where things are standardized, where things are automated using this workflow. So you start with proactive DWG drafting and scale it towards completely connected three d, three d modeling, three d analysis. So this is this way, you save a lot of time and cost. You know? About 80% of, time in terms of geometry reentry, geometry re modeling has been reduced with this. It's two x faster than the regular division cycle. And, there are I mean, if if you compare with the late, redesign changes that that occurs and that incur those costs, we can actually prevent that, plus the BOM accuracy. So because of revisions, BOM would, you know, it it would revise. But this is this this also captures the changes in the components and that is going to update your BOM and keep you updated when it comes to inventory and purchase management. So this this workflow, it it actually wins because of the single ecosystem that we have across the entire Octane domain. And there are a lot of these solutions, and we are building this intelligence for you know, both for the solutions that we have. So currently, what we have showcased is specifically for the pressure vessel process equipment industry. However, you know, in in future, we are going to see a lot of this data flowing across different domains of work. Now, this bidirectional workflow between PV light and print scanner environment, it telehumanizes the chances of that because we we don't have much manual entry here. And it's it's definitely a code compliant, not a bolted one. So you you have a code compliant design, in in in the picture. So this way, everyone would have single source of truth across the entire project across the entire organization. So the key takeaway is, what what we could see from this workflow is this is an intact workflow. It includes everything which is required, tool drafting, theory modeling, analysis, documentation. It has higher level of probability with the AI assisted drafting tools that we have, which you've seen copy, tag, and move. I'd all those tools that we spoke about. The accuracy which improves and the business well. Because you you don't revert a lot on your models. The the the revisions, they are managed through through these, and the rework is managed through this particular workflow. So this, you know, is a better offers a better engineering business value. Now this way, bricks can the platform itself, TWG platform, it becomes a foundation of your design, with this particular connected engineering workflow. So thank you everyone for joining in. If, this is the end of our webinar, how I I I I I would really appreciate if you have any questions. And if you can share it with us, we'll be happy to help you with it. Thank you, everyone. Okay. So we have one question from mister Dean. With it, what is the best software that can do a fee CFD for pressure vessel design? Now because fixed that, it it's it's a VWG based platform where you can create your three d models. You can use any FEA or CFD tool for your choice. It's just the model that you create here, which can be exported either as a DWG three d, either as a step file or an ideas directly to the FEA softwares. And because, you know, when it comes to FEA, it depends upon the user, the the analyst who is going to analyze that. Whichever software he he is is good with, he can import this particular model. However, specifically into the pressure vessel design, we all know that one thing which is very, commonly used is TV led, which is our in house tool. And, if if you use that in in the workflow, because of this engineering connected workflow, you have seamless data transition. So, mister Dean, if you would like to have, the PV lights software, I would ask our sales team to connect with you if you, want to purchase that. So the these are exurban, you know, solutions only, which includes the pressure vessel design, which includes, you know, the the PV light. These are all in house solutions. And, and now it's it's called less octave. Do do share us your email address. Our team would contact you for this. Okay. There is one more question. So if it was if someone wants to build a pressure vessel, can I connect strain gauges to it and measure stress and develop this, like, with yeah? Ideally, I mean, pressure vessel, when it when it comes to pressure vessel, one of the important, you know, stresses are the internal, stresses, are the, stresses across the thin membranes of your vessel, which are important where we understand it through stress linearization in a few softwares, because of thin walled vessel. Now, for that yeah. When tools like screen gauges is is going to help you in some part of it, definitely. So there is one more question from mister Pravatamesh. Can we automate the drawing part like the calibration we we did and generated drawing automatically? So we can do half of that. So when it comes to automating the drawing, you need to initially create the drawing using the automatic view creation capabilities of Brickscad into the Brickscad layout space. So once we create those drawings and because the model is linked to PV light, the update in PV light is going to drive the model. And because that update in model, we, the the drawings would automatically update. Yeah. So drawing initially needs to be created once, but it's going to update. So I think, we are at the end of this webinar. Thank you everyone who has joined us from different part of, taking your time. I hope, we we were able able to deliver some good content to you, some good workflows, for this. We will we'll keep you posted for different webinars that we are running on different industries and different segments. We'll keep you posted about that. Thank you, everyone.