INFODRAINAGE STANDARD VS ULTIMATE

A drainage design software platform called InfoDrainage makes it possible to create Sustainable Drainage Systems (SuDS), Green Infrastructure, and traditional drainage systems. Both storm and foul networks are supported, permitting 1D and 2D simulations of multiple storms simultaneously.

InfoDrainage comes in two distinct tiers: Standard and Ultimate. InfoDrainage Ultimate offers all the features of the Standard edition in addition to 2D analysis and integration with Civil 3D. These features are discussed in this blog, along with some of the restrictions of the Standard version and, if available, any alternative workflows.

2D ANALYSIS

INFODRAINAGE ULTIMATE

A 2D analysis that shows the depth and speed of the exceedance flows in a plan view can be used to assess the flood danger to property or people during an extreme event.

INFODRAINAGE STANDARD

InfoDrainage Ultimate is the only product that offers this functionality.

CIVIL 3D INTEGRATION

INFODRAINAGE ULTIMATE

Using a special ribbon, which is available for Civil 3D 2020 and later versions; pipe networks, surfaces, and catchments from Civil 3D can be easily exported to InfoDrainage. Parts mapping can be used to choose the InfoDrainage connections and junctions that will substitute the Civil 3D pipes and structures after the network has been exported from Civil 3D as a storm or foul network. If there are numerous iterations between InfoDrainage and Civil 3D, this mapping will be remembered, and templates of this correlation can also be saved for use in other drawings.

In Civil 3D, the import procedure can build a new pipe network or update an existing one, making it easier to synchronise any changes made to the design. If the network in InfoDrainage includes any elements (such as ponds, swales, cellular storage, or open channels) without an equivalent structure or pipe in Civil 3D, those elements will be included in Civil 3D using polylines, feature lines, corridors, and surfaces. Multiple barrel connections are also supported and will appear in Civil 3D as multiple pipes.

INFODRAINAGE STANDARD

InfoDrainage Standard does not include a dedicated ribbon in Civil 3D. Although some InfoDrainage objects can be transferred using an intermediate file format, like AutoCAD, LandXML, or a shape file, it is frequently necessary to manually update and even model those objects in Civil 3D. Additionally, the Standard edition of Civil 3D only allows for manual updating of Civil 3D items (such as pipe diameters or slopes).

Using the Standard version necessitates exporting each object from Civil 3D to an intermediary file format and then importing that file from InfoDrainage, whereas the Ultimate version will export all the objects (pipe networks, surfaces, and catchments) and their properties simultaneously.

For pipe networks and surfaces, it is possible to use the LandXML format. A small inconvenience is that the Pipe and Structure names differ slightly between Civil 3D and InfoDrainage (e.g., "MH1" in Civil 3D vs. "MH1 (SWS)" in InfoDrainage, with "SWS" standing for the network name. Exporting to a CAD format is an option if LandXML does not produce the desired outcomes for the pipe network. This will result in the pipe network being exported to AutoCAD as a 2D polyline, requiring the creation of the pipe network in Civil 3D and the manual entry of the appropriate levels, pipe, and structure sizes.

InfoDrainage Standard does not allow straight import of civil 3D catchments. The Civil 3D model must be exported to an AutoCAD format prior to importing the catchments from that file. Since the catchments will be generated in InfoDrainage from polylines, the catchment names and runoff coefficients must be manually edited to match the values of the Civil 3D catchments.

It is possible to create new objects or change existing ones when importing an InfoDrainage file into a Civil 3D drawing that already exists. The diameters, slopes, and other dimensions of current pipes and structures can all be updated using this. A Civil 3D network can be modified to match the InfoDrainage file by adding new branches or removing old ones. This is not feasible with the Standard version; you would have to manually compare the two networks to look for those changes.

Similar to how you would export them, pipe networks and surfaces can be imported into Civil 3D using the LandXML file. The LandXML file does not contain stormwater controls (such as ponds, swales, cellular storage, etc.) or non-pipe connections (such as channels), so they must be imported separately. They can be imported as 2D polylines from Civil 3D using a shape file. The objects would then need to be modelled using Civil 3D tools. They are brought immediately as 3D objects using feature lines and surfaces by the InfoDrainage Ultimate ribbon.

Using a shape file, catchments can be imported into Civil 3D as 2D polylines. You then need to create each catchment from a polyline, rename them, assign a structure, and update the runoff coefficient using the values from InfoDrainage.

This video provides a quick comparison of these tasks performed in InfoDrainage Standard and Ultimate, or just in InfoDrainage Ultimate if no other workflows are available for the Standard version.

 

Do you need more help in Civil 3D? Take a look at our wide range of Civil 3D courses here. Alternatively, please do not hesitate to contact SYMETRI  on 0345 370 1444 or email us at info@symetri.com for more information. 

Why Choose Symetri As Your Autodesk Training Provider?

Training is an investment in yourself, your career, and your future. It is a crucial part of personal and professional development that can help you achieve your goals. Training can offer many benefits, whether you're looking to learn new skills or stay up to date with the latest trends and technologies.

Symetri is an Autodesk Learning Partner. There are several reasons why you should consider using an Autodesk Learning Provider for your Autodesk software and training needs:

 

The Benefits Of An Autodesk Learning Partner

Autodesk Learning Providers are certified experts in their field, with extensive experience in using Autodesk Software. All our trainers are classified as Autodesk Certified Instructors, and they have the skills and knowledge to teach others how to use Autodesk software. When you are trained by us, you will receive high-quality training based on the most current industry standards and best practices. Additionally, we have access to the latest training resources and tools provided by Autodesk, which enables us to provide up-to-date training to students.

Scheduled, Private And Customised Training Options

Each organisation has different training requirements, so Symetri offers flexible training options, including in-person, virtual, and on-demand training, to accommodate a busy schedule and learning style. This can be in the form of scheduled courses that take place regularly or with company-specific training; you can pick dates that fit you and your organisation.

You can also complement instructor-led training by investing in Pinnacle Series, the e-Learning platform we support.

We can customise training programs to meet your specific needs and goals. The content delivered on the course will be designed by your trainer, who will be an expert in your chosen software and can even use your own models and projects on the course.  If you are encountering a specific problem on your project, this could be the ideal way to learn by working on a real-life example, making sure that your goals are met. 

A Range Of Training Facilities Across The UK

Symetri has several training centres in the UK. Classrooms are equipped with PCs and projection facilities, ensuring that the environment you learn in is fit for purpose. All PCs have the latest version of the software you need for your course. For more information about where our Training Centres are based, please click here.

For customer-specific training, you can learn on the same version that you are using in your organisation. 

This can be delivered at your site if that is preferable for you. There is also the option of using our Mobile Workstations or gaining access to a virtual machine throughout the course. Virtual Machines embrace the power of cloud computing, delivering the software onto any machine with internet access.  So, if you do not have enough licences for you to use your own machines when training, this solution is available to you.  It could also allow delegates to use machines that are not traditionally powerful enough to run high-end CAD software.

Virtual Instructor Led Training (VILT) 

Attending virtual training is more convenient. VILT has a different element to in-person training with real-time chat, polls, and pop quizzes, which brings another way of interacting.  Some people will be more comfortable in their own space and are open to asking questions. 

Virtual Training is scalable, allowing colleagues from different offices around the country and other regions to attend the same course.

E-MANUALS 

Sustainability is an essential element in our lives and businesses. Therefore, Symetri has decided that all training manuals will be delivered in an electronic format offering several benefits.

• Easy storage - E-manuals can be easily stored and accessed on electronic devices, making it possible to carry an extensive library wherever you go.
• Enhanced readability - Text size, font style, and background colour can be adjusted to enhance readability
• Search function - With a built-in search functionality, it is easy to find specific information quickly.
• Environmentally friendly - E-Manuals are a more environmentally friendly option as they do not require any paper or need to be shipped around the world, reducing both Symetri’s and our customer’s carbon footprint.

Explore our full range of trainingcourses. To book an appointment and discuss your training requirements with us, please get in touch. 

Contact us:

info@symetri.co.uk

0345 370 1444

Autodesk Fusion 360 for Design & Manufacturing – Exploring the Workspaces!

In my upcoming blogs, I will dive into why Autodesk Fusion 360 is such a disruptive technology on the market and why industry and educational institutions are becoming more interested in what Fusion 360 has to offer.

In this blog, I will explain what Fusion 360 is and introduce the Simulation, Manufacture, Drawing and Electronics Workspace.

So, what is Fusion 360?

Fusion 360 is the first collaborative, cloud-enabled CAD, CAM, CAE, and 3D PCB design platform that allows designers and engineers across the industry to connect, collaborate and ultimately bring products to market faster than before.

The Simulation Workspace

The Fusion 360 Simulation Workspace allows Engineers to perform simulation studies of different FEA concepts on the design models. The following image is an overview of the types of study that can currently be generated:

These tools available in the preliminary design stage allow engineers to perform testing on the products during the design phase to help reduce errors and improve the product’s safety before the manufacturing process starts.

Fusion 360 users also have an advantage where you can import any native CAD file from any CAD package on the market and perform FEA tasks when required. Models can also be simplified in the Fusion Design or Simulation Environments that allow output to other third-party FEA tools that may be used in the design or quality departments, for example, ANYSYS, CFD etc.

The Manufacture Workspace

Fusion 360’s Manufacture Workspace offers the CAM Engineer a comprehensive set of manufacturing setup options for Milling, Turning or Mill/Turn, Cutting, Additive, Inspection and Fabrication type workflows.

The types of toolpath strategies available include 2.5-Axis Machining, 3-Axis machining, 3+2 (5-Axis Positional) Machining and 5-Axis Simultaneous Machining techniques. Recent updates are incorporating high-end machining strategies such as Steep and Shallow finishing found in Autodesk Flagship CAM package PowerMill, including multi-axis capabilities and collision avoidance, strengthening the machining capabilities that Fusion 360 has to offer.

As the associative behaviour of Fusion 360, where changes are made in the Design Environment, is automatically updated and reflected in the Manufacturing environment meaning that CAM related rework to applied toolpath strategies is kept to a minimum and captured with the design change.

Autodesk Fusion 360 offers an excellent machining simulation environment allowing CAM Engineers to simulate their toolpaths. They can check for collisions and gouges. Adjustments can be applied to the toolpath strategy to ensure a high level of safety before generating the NC code required to operate their expensive CNC machinery.

 

Autodesk gives users access to a free online library of generic post processors, machine simulation files and tooling libraries where all the big players in the CNC world are accommodated for. They are constantly updated with the new and required functionality, including new machines and post-processors being added regularly

If you are unable to locate the desired post processor and or machine simulation file, you have two options:

Option 1

Autodesk released instructions on manually creating and manipulating post processors, which can be found on the Post Library Website.

Option 2

Manufacturers can approach highly training Autodesk Partners to take on post-processor development projects to get you up and running with the software by producing working post-processor and machine simulation files to suit your needs.

If you are looking at adopting Fusion 360 for manufacturing, exploring the Post Processor Library is the perfect place to start. Many post processors are available for free. If you find a post relating to your CNC hardware, see if you can replicate the required toolpath strategies created with your current CAM solution?

Symetri offers excellent services to help you explore Fusion’s functionality and see if it is right for you. We can take your models, apply toolpath strategies, and generate test code to see if further alignment is required for a working post-processor. We also offer comprehensive best-in-class training around all the CNC machining capabilities mentioned above.

 

 

Stepnell’s BIM approach for University of Worcester - The digital journey from construction through to facilities management

This blog takes a look at the use of various technologies on a refurbishment and extension project, resulting in gaining maximum insight and value from a Revit 3D model, streamlining workflows, formatting data for direct input from the design models into a Computer Aided Facilities Management (CAFM) system, through to the use of point cloud technology to assist subcontractors, and monitor site progress every step of the way.

 “This has been a completely BIM-driven project and, as all asset data now moves seamlessly into our CAFM system Archibus, it will carry on being so for long into the future. It was a steep curve learning process for all parties as we set out to integrate numerous technologies, while also working up against the many complexities of combining a refurbishment with a new build.

I firmly believe that embracing others’ knowledge for the betterment of the project is key to a successful outcome. Symetri, were the connecting strand in all of this; they knew what solutions and specialist digital skills to bring to bear, when. It’s something they do every day. Now Stepnell can too”

 

Charlotte Brogan, Technical Manager at Stepnell

Meet Stepnell

Stepnell is a complete construction partner, with end-to-end project lifecycle expertise. The company's main objective is to make sure that its customers realise their visions. Clients can feel confident that every aspect of their project will be executed effectively, to the highest standards, and in a collaborative manner thanks to Stepnell's breadth of expertise and holistic approach.

Stepnell is a financially resilient company with over £58 million in net assets and a history spanning over 150 years in the industry. Stepnell's management team is knowledgeable, experienced and commercially responsible.

Stepnell work with a wide range of clients in the public and private sectors. They combine the focus and accessibility of a regional contractor, with a depth of technical competency, professional capability, and national reach, usually associated with far larger construction companies.

Elizabeth Garrett Anderson building - A showcase project laying the ground rules for the future

Stepnell was successful in its tender for a project from the University of Worcester which included transforming the former Worcester News building, a sizeable two and three storey building, constructed in1965, into a first-class facility for the training of health professionals.

The building has been named by the University as the Elizabeth Garrett Anderson building, in honour of the first woman in Britain to qualify as a physician and surgeon.

The project was partly refurbishment and partly a new build; stripping back to shell and core and then building an extension. Planning was essential for the process of capturing the existing structure and integrating it with the new construction, especially in the context of generating point cloud data.

The University team also requested the usage of a reliable Computer Aided Facilities Management (CAFM) system, which calls for data to be reliably populated from the building's maintainable assets. When it came to synchronising the data between the Revit model and the CAFM system against strict parameters, this latter requirement posed a particularly difficult task. There were additional difficulties, which gave Stepnell the chance to create an approach to projects of such complexity, that would later serve as a model for other projects.

To assure adherence to Building Information Modelling (BIM) norms while adapting to the specific requirements the University voiced for its CAFM system, a complete multidisciplinary team of professional technology providers came together.

 STAGE 1: Preparing to succeed

·         Establishing the BIM level 2 framework

BIM was clearly something that the University of Worcester wanted to utilise on the project. They were determined to employ Revit 3D collaborative models and to make sure that all important data to facilities management after handover could be transferred from the Revit model to the CAFM system, Archibus. This system hadn't yet been put in place.

Stepnell included Symetri as its designated BIM partner for information management during the tender stage, and this partnership swiftly grew. The University's Service Development Manager for Estates and Facilities contacted Symetri for advice on the necessary detail and documentation for the BIM Level 2 project as well as for setting up the facilities management system before they could create their specific clarified requirements for Stepnell. These two foundational strands of project preparation got underway in parallel.

The University team was coached by Symetri through all of the crucial BIM requirements, protocols, and associated project planning, and created key documents like the BIM Execution Plan (BEP). Additionally, they showed how workflows would be integrated between the construction stage (and earlier) to facilities management (and beyond).

·         Simplifying the data focus

The University team appointed Service Works Global (‘SWG’—part of the same group as Symetri) under a separate service to the BIM support services. SWG experts in computer aided facilities management, who guided the setup of Archibus to meet the precise requirements of the University around pertinent data and asset information.

To ensure that the parameters were shared, it was necessary to pay attention to the nature of the data and how it was presented in order to match the file data coding with Archibus. This included information like the building code, warranty information, classification codes, and serial numbers.

 

Usually, Construction Operations Building Information Exchange (COBie) data is used for these purposes. However, the University had a specific requirement on the precise fields of information they needed for the maintenance of their CAFM system, thus it was chosen to structure the data in a bespoke manner. The data that is available in the 3D model is also difficult for those who are not necessarily 3D proficient. The fastest path to comprehension is simplicity. For example, asset manuals are now conveniently accessible by having the URL embedded in both the Revit file and Archibus.

Together, Symetri and SWG formatted the data fields and guided population of the information from the design teams and suppliers directly into the database. This collaboration's specific objective was to create a data flow between Archibus and the project models, so that modifications could be done in the model authoring software and then simply exported, sent to the university, and imported into the CAFM system (Archibus). There were regular data-drop dates that necessitated a general ‘health-check’ on the models from Symetri, in order to make sure the information was accurate before pushing to the university. Symetri used Solibri to ensure the data were reliable, correctly assigned, and checked for information quality within the model.

We’re ready

“At this early stage we knew that every aspect of both the BIM parameters for the project and the smart use of data both within and beyond it had been addressed” says Charlotte Brogan, Technical Manager at Stepnell. “The University was up to speed on how to adhere to BIM protocols and were reassured that the team that we had around us in specialist support roles, were giving everybody a lot of confidence”.

STAGE 2: On-site—making the connections between physical and digital

With the CAFM system in place and the BIM direction of travel defined, documents prepared, and all involved parties brought up to speed, it was time to address how what happened on site, would not sit alone as a physical exercise, while information capture and data foundations for facilities management sat in a different digital world.

·        Gaining visibility of the frame

It took a laser scan to display the frame following the strip-out. The intention then was to combine the point cloud data with the 3D models. From the perspective of MEP and structural contractors, this stage was crucial.  For instance, in order to help them build the roof cladding (a gold copper shingle) offsite, the roof cladding suppliers needed to see how the roof looked. For the purpose of detecting clashes, the point cloud was also crucial.

At this point, the next specialist company joined the team. Stepnell was referred by Symetri to 1st Horizons, who specialise in 3D laser scanning among other things. An invaluable lesson was learned at this stage around the specifics of point cloud.

A simple scan will examine every element in its path. Even when these are subsequently meshed, they do not convert into the ‘solid’ elements that Revit requires. The way around this is to commission a ‘Scan To BIM’ that creates a 3D geometric shape compatible with Revit.

 

·         Seeing the site progress - 360° image capture
Going onsite and taking a look at the situation has typically been done to ensure that the model accurately depicts reality. Taking pictures with a camera (or a smartphone camera), uploading them, attaching them, and sending them can take a lot of time.

Oculo builds a 3D walk environment using a hard-hat mounted camera by taking countless continuous photos until the final product closely resembles video footage and can be completely manipulated on-screen (zoom in and out, rotate etc). A key function of Oculo is the ability to import the project clash detected federated model directly into Oculo, which can be used to compare the scans of the physical as-constructed state on site against the design intent models.

“Oculo has really sped up so many tasks that were previously so painstakingly slow”, says Charlotte. “As-built checks are now easy and also deeply detailed, allowing us to compare what is happening on the site directly to the model”.

Charlotte also states that changes can now be made to the design and not onsite, the far more costly alternative.

The outcomes

The Elizabeth Garrett Anderson project got underway on 6^th June 2021 and is on track for completion in December 2022. Beyond just finishing the project, it has been a valuable exercise in educating all parties in best practice in digital and physical, and connecting the two together:

• University of Worcester intends to use its new BIM standards (such as the EIR and the AIR), to define all projects going forward.
• University of Worcester now has an up and running CAFM system.
• Data is now formatted for feeding into Archibus from the model.
• Clarity, collaboration, and contentment—a winning combination.

Would you like to discuss your BIM projects or Construction workflows?

Please get in touch with SYMETRI by emailing us at info@symetri.co.uk or call us on 0345 370 1444.

 

Creating a Civil 3D surface from an Esri ASCII raster

Digital terrain models, such as LiDAR data, are frequently stored in Esri ASCII raster files (*.asc). In this blog, we'll explain the structure of the data in this file type and walk through the workflow of creating an ASC file into a Civil 3D surface.

An esri ASCII raster file holds the elevation of several square cells that make up a grid in the context of digital terrain models. You may see the data that makes up the file if you open it in a text editor like notepad. It starts with a header that defines the properties of the grid followed by the data, with the grid cells elevations separated by spaces.

A list of parameters that are part of the header are listed below:

·         ncols: number of cell columns.

·         nrows: number of cell rows.

·         xllcorner or xllcenter: x coordinate of the lower left corner (or centre) of the origin cell, located in the lower left corner of the grid.

·         yllcorner or yllcenter: y coordinate of the lower left corner (or centre) of the origin cell, located in the lower left corner of the grid.

·         cellsize: size of each of the square cells.

·     NODATA_value: value that designates that no data exists for a particular cell. This parameter is optional and may not exist.

The data that follows is a list of elevations, listed from top to bottom and left to right, divided by spaces.  In other words, the elevation of the upper left cell is the first value, followed by the elevation of the second leftmost cell from the top row etc. The values are typically organised into separate lines that correspond to the various rows, with the first line representing the row at the top of the raster. The number of columns determines when the next row starts, so carriage returns are not required at the end of each row.

Raster grid

The two examples below show the same raster grid, using the coordinates of the corner or the centre of the origin cell.

Checking coordinate systems

We must ensure that the coordinate system is set correctly, before creating a surface from an ASC file in Civil 3D. It can be set from ‘Edit Drawing Settings…’, as shown below.

Creating a new surface

We then begin by creating a new surface.

For points that lie in a regular grid, it is advised to use a grid surface rather than a TIN or triangulation surface. A grid surface will load more quickly than a TIN surface since it uses less disc space, especially if the number of points is high.

Grid X-spacing and grid Y-spacing should be set to the ‘cellsize’ parameter from the header of the ASC file.

Adding a DEM file

From prospector, look for the surface and add the DEM file from the ‘Definition’ branch.

Browse to the ASC file and set ‘Use custom null elevation’ to ‘Yes’ if the ‘NODATA_value’ parameter is part of the header in the ASC file. In that case, ‘Null elevation’ should be set to the ‘NODATA_value’ parameter. If that number is found in the file, it will be ignored, and no point will be created for that particular grid cell. If you don’t use a custom null elevation, it will create a point at that level (-9999m in our example), which is incorrect.

Civil 3D Surface

After confirming the previous dialog, the surface will be generated.

A point will be created at the centre of each grid cell. In the picture below, the grid from the ASC file is shown in cyan, the boundary of the surface in red, and the surface triangles in white. The coordinates and levels that have been labelled can be found in the example files that we showed at the start of the blog.

If you would like to learn more about Civil 3D, please visit our product page. Alternatively, you can contact SYMETRI on 0345 370 1444 or email us at info@symetri.co.uk.

Utilising the Autodesk Construction Cloud to improve the preconstruction phase

 

“Autodesk Construction Cloud is helping us to improve design management processes and model coordination. We have seen improvements in productivity, outcomes and helping our teams to handle further capacity”

Lee Ramsey, Digital Director for Morgan Sindall Construction

Morgan Sindall Construction is a UK business with a network of local offices. Project capabilities cover the entire range of construction activities, from special works and repair and maintenance, to major landmark schemes delivered as standalone projects or as part of larger multiple project frameworks. The company works across both the public and private sectors to deliver the social infrastructure around us – from schools, universities and hospitals to retail, office, and leisure environments.

Morgan Sindall Construction is a component of the Morgan Sindall Group plc, with annual revenues of £3.2 billion and six operating divisions, including Construction & Infrastructure, Fit Out, Property Services, Partnership Housing, Urban Regeneration, and Investments. 

 

Automating traditional processes

Each of Morgan Sindall Construction's projects is centred on sustainability and efficiency, and to achieve their goals of becoming the most coveted and sustainable company in the industry, they had to match their business goals with the requirements and expectations of their workforce, clients, supply chain partners, and other stakeholders. This involves ensuring that their projects are 100% safe, finished on time, and of high quality.

Morgan Sindall Construction align their strategy to the UK's Digital Construction goals. Since the UK Government Construction Strategy was published in 2016, various digital projects have been delivered thanks to their commitment to Digital Construction, which is supported by their business philosophy of Perfect Delivery. These projects have connected people, process, and technology, improved consistency, enhanced decision-making, and decreased risk at the design, construction, and operation stages of their projects.

Improving design management and model coordination

Complementing this strategy is their recent implementation of Autodesk Construction Cloud (ACC), a portfolio of construction management software products supporting workflows across all phases of construction—from design, to planning, to building, to operations.

“Management of design is complex, involving multiple stakeholder interests, external approvals and consents, but it’s very important to us as a contractor. It is during the design and preconstruction phase where the DNA of the project will be confirmed, which is fundamental to our success in winning work and delivery. Reduction of time is also critical during the preconstruction phase so that we can reduce our internal staff costs and design team fees, which is one of the key items in the UK Government construction strategy,” says Lee.

Find out how Autodesk Construction Cloud (ACC) is helping with this process below

Challenges

• Clash detection process could take up to 3 weeks.
• Review processes taking too long.
• Too many errors being produced on 2D outputs.
• Synchronisation of models and uploading and downloading of models.
• Team accountability.

Solutions

• Autodesk Construction Cloud provides automated detecting and grouping of clashes in minutes.
• It allows all parties to see the design as it develops in almost real time which has reduced abortive design work.
• The model comparison tool has allowed the design team to see a 50% time saving in the identification of change as everything is made visible.
• The change analysis feature helps reduce risk on projects.

 

Benefits

·     Synchronisation of models and uploading and downloading of models time has reduced by 78%. This benefit significantly reduced the impact of Covid-19 and enabled Morgan Sindall Construction’s teams to work remotely, yet still collaborate.

• Time taken to review information has reduced, resulting in a 20% reduction in the preconstruction phase.
• The team have been taking ownership for their own information before being issued to others and the quality of the output has increased due to the transparency.
• The identification of changes and issues has significantly improved resulting in a 62% time saving as people have been resolving and controlling their own work.
• 20% improvement in time taken to update model to co-ordinate with other disciplines.
• The design team meeting time has been reduced by 67% as there has been a lot less comments when reviewing the 2D outputs and issues are being addressed at source in the 3D model.
• The traditional clash detection process was taking 3 weeks. With Autodesk Construction Cloud, it is now taking minutes.

 

Learn more about Morgan Sindall Construction: www.morgansindallconstruction.com/

 

Would you like to improve your construction workflow with Autodesk Construction Cloud? Please get in touch with us at SYMETRI by emailing us at info@symetri.co.uk or call us on 0345 370 1444.