39 Plane courses in London

OpenStack for NFV and SDN course description OpenStack is predominately a cloud management technology. This course looks at how OpenStack can be used in a NFV and SDN environment. What will you learn Describe the architecture of NFV. Explain the relationship between NFV and SDN. Implement NFV VIM using OpenStack. Explain how OpenStack as VNFM and orchestrator works. OpenStack for NFV and SDN course details Who will benefit: Anyone wishing to implement NFV using OpenStack. Prerequisites: Introduction to Virtualization Duration 3 day OpenStack for NFV and SDN course content What is NFV? What is NFV? What are network Functions? NFV benefits, NFV market drivers. ETSI NFV framework. ETSI documents, Architecture overview, compute domain, hypervisor domain, infrastructure network domain. What is OpenStack? Virtual machines, clouds, management. OpenStack architecture, OpenStack modules. Why OpenStack for NFV? Hands on OpenStack installation. OpenStack Virtualization and NFV Server, storage and network virtualization and NFV. Where OpenStack fits in the ETSI framework. Virtual machines, containers and docker. Data centres, clouds, SaaS, IaaS, PaaS. Hands on OpenStack Iaas, OpenStack Nova. The virtualization layer VM centric model, containers versus hypervisors, FD.io. Hands on OpenStack as the VIM. OpenStack Neutron VXLAN, Networks, subnets, ports. Security groups. Routers. Service and component hierarchy. Hands on Implementing a virtual network with OpenStack Neutron. Virtualization of Network Functions Network virtualization versus Network Function virtualization. NFV MANO Management and Orchestration. Where OpenStack fits. MANO descriptors, Open orchestration. OpenStack Tacker, Open MANO, OpenBaton, other orchestrators. OpenStack Tacker Installation, getting started, configuration. SFC and OpenStack. Hands on Deploying a VNF. OPNFV What is OPNFV, Where OpenStack fits into OPNFV. SDN What is SDN? Control and data planes. SDN controllers. Classic SDN versus real SDN. Hybrid SDN, network automation, SDN with overlays. Northbound, southbound, SDN protocols, OpenFlow, OpenDaylight, ONOS, SDN with NFV. SDN and OpenStack. Summary Deploying NFV, performance, testing. Futures

CWDP training course description The CWDP course consists of instructor-led training applicable to the design of wireless LANs using the latest technologies including 802.11n and 802.11ac. The course goes in-depth into the design process and provides attendees with the knowledge needed to plan, deploy and test modern 802.11-based networks. It also prepares students for the CWDP examination. Students who complete the course will acquire the necessary skills for preparing, planning performing and documenting site surveys and wireless LAN design procedures. What will you learn Design enterprise WiFi networks. Select appropriate antennas and Access points. Perform site surveys. Describe the security requirements required for enterprise networks. Test, validate and troubleshoot installations. CWDP training course details Who will benefit: Anyone looking for the skills to analyze, troubleshoot, and optimize any enterprise level Wi-Fi network, no matter which brand of equipment your organization deploys. Anyone looking to become a CWNP. Prerequisites: CWNA Duration 5 days CWDP training course contents WLAN design overview Importance of good design, Impact of bad design, Design process, Design skills, Design toolkit. Requirements analysis Pre-planning, Customer interaction, Requirements gathering, Discovering existing systems, Documenting the environment, Defining constraints, Creating documentation. Designing for clients and applications Client Device types, Application types, Application-specific design, High density design issues. Designing for industry Standard corporate networks, Industry-specific designs, Government, Healthcare, Hospitality, Retail, Public hotspots, Transportation, Mobile offices, Outdoor and mesh, Remote networks and branch offices, Last-miles / ISP and bridging. Vendor selection processes Defining vendor issues, Operational planes, Design models, Understanding architectures. Radio Frequency (RF) planning RF spectrum, RF behaviors, Modulation and coding schemes, RF accessories, Throughput factors. WLAN hardware selection Antennas, 802.11n and antennas, Choosing Aps, Powering Aps. Site surveys Site survey tools, Site survey preparation, Predictive site surveys, Manual site surveys, Site survey principles and processes. Designing for Quality of Service (QoS) QoS overview, QoS application points, Roaming support. Designing for security Bad security, Authentication solutions, Encryption solutions, Security best practices, Intrusion prevention. Installation testing, validation and troubleshooting Network health status, Troubleshooting and validation process, Troubleshooting and validation tools, Common problems. Hands-on lab exercises Hands-on labs depend on the audience and can include use of: Spectrum analyzers, Protocol analyzers, Site Survey software, Diagramming software, Various wireless access points, Various wireless adapters and antennas.

About this Training Course  Seismic interpretation requires an understanding of structural development and its interrelation with the stratigraphic system. Bias and misunderstanding have unfortunately resulted in countless dry holes. So go beyond tracing horizons and understand their context within the structural system by extracting key information from seismic surveys and other datasets. In this 5 full-day training course, participants will learn a variety of modern structural concepts and techniques and their role in the interpretation of seismic data. Using an applied 'hands-on' approach, participants will be exposed to a diversity of worldwide case examples with complementary exercises - both of an individual and group nature. The course is designed from an applied standpoint, with numerous examples and hands-on exercises from the petroleum industry. This course can also be offered through Virtual Instructor Led Training (VILT) format. Training Objectives By the end of this course, the participants will be able to: Go beyond tracing horizons and marking faults and truly understand the structural and stratigraphic system. Understand the role of tectonics and deformation in the formation of various types and orientations of geologic structures. Understand the interaction of the structural system with the stratigraphic and sedimentologic environment for better prediction of reservoir formation. Integrate data from the large seismic scale to subseismic scale, including seismic anisotropy, to understand better the overall petroleum system. Learn about the common pitfalls of interpretation. Target Audience This course is intended for geologists, geophysicists, reservoir engineers, and exploration/production managers. Course Level Intermediate Trainer Your expert course leader received his B.S. and M.S. degrees in Geology from the now University of Louisiana-Lafayette in 1989 and 1990 respectively, and his Ph.D. as a National Science Foundation fellow at Baylor University, Waco, Texas, in 1993. From 1994 - 1996, he studied planetary tectonics as a NASA-funded postdoctoral fellow at Southern Methodist University. In 1996, he returned to UL-Lafayette, where he was awarded in 1997 the Hensarling-Chapman Endowed Professorship in Geology. He began independent consulting activities in 1991, and in 2001, he left academia for full-time consulting for clients ranging from one-man shops to supermajors. He rejoined UL-Lafayette as an adjunct professor from 2011 - 2018. He is an active researcher, receiving several million dollars in grants from federal, state, and industry sources, presenting numerous talks, including a 2019 AAPG Levorsen award, and publishing on a diversity of geoscience topics, including a Grover E. Murray Best Published Paper award in 2017. He is co-author of the inaugural GCAGS/GCSSEPM Transactions Best Student Paper award in 2018. He served as the GCAGS Publisher since 2006 and in various GCAGS/GCSSEPM Transactions editing capacities since 2006, including the 2014 and 2017 - 2022 Editor (named Permanent Transactions Editor in 2017), and Managing Editor since 2011, receiving a GCAGS Distinguished Service Award in 2018. He served as the General Chair for GeoGulf 2020 (70th GCAGS/GCSSEPM Convention), the 1st hybrid geoscience conference in the world. He is a Past President of the Lafayette Geological Society and served as its Editor and Publisher from 2002 - 2018. In 2018, he founded the Willis School of Applied Geoscience, reformulating decades of industry-training experience to provide alternative opportunities for graduate-level education. In 2020, he received an Honorary Membership from GCSSEPM. He also joined the LSU faculty as an adjunct professor in 2020. In 2021, he co-founded the Society of Applied Geoscientists and Engineers, serving as its President, General Chair for the SAGE 2022 Convention & Exposition, and Vice-Chair for the Benghazi International Geoscience & Engineering Conference 2022 (BIGEC 2022). POST TRAINING COACHING SUPPORT (OPTIONAL) To further optimise your learning experience from our courses, we also offer individualized 'One to One' coaching support for 2 hours post training. We can help improve your competence in your chosen area of interest, based on your learning needs and available hours. This is a great opportunity to improve your capability and confidence in a particular area of expertise. It will be delivered over a secure video conference call by one of our senior trainers. They will work with you to create a tailor-made coaching program that will help you achieve your goals faster. Request for further information about post training coaching support and fees applicable for this. Accreditions And Affliations

About this Training Course Petrophysics remains a vital component to many facets of the petroleum industry, from quantification of hydrocarbon reserves to developmental strategies to real-time decision making for reservoir navigation. Targeted at awareness to knowledge level, this course addresses the tenets of petrophysics and formation evaluation, using integrative perspective of multiple datasets, including geological, geophysical, and logging and core data. Significant worldwide case histories are included, as well as several exercises designed to provide hands-on experience. This course can also be offered through Virtual Instructor Led Training (VILT) format. Training Objectives By attending this course, the participants will be able to: Understand better the latest geological, geophysical, and logging/core technologies and their role in petrophysical analysis, formation evaluation, and reservoir characterization. Address the pros and cons of key datasets, with emphasis on need for integrative studies and calibration of datasets. Apply quick-look qualitative techniques as well as quantitative aspects to understand vital aspects such as volume of shale/clay, porosity, permeability, and water saturation determinations. Select tool combinations to resolve key issues and for specific applications. Assess uncertainty in petrophysical measurements and techniques and its influence on reserve estimation. Target Audience This course is recommended for development and exploration geologists, petrophysicists, log and core analysts, geophysicists, petroleum engineers, managers, and technical personnel. Course Level Intermediate Trainer Your expert course leader received his B.S. and M.S. degrees in Geology from the now University of Louisiana-Lafayette in 1989 and 1990 respectively, and his Ph.D. as a National Science Foundation fellow at Baylor University, Waco, Texas, in 1993. From 1994 - 1996, he studied planetary tectonics as a NASA-funded postdoctoral fellow at Southern Methodist University. In 1996, he returned to UL-Lafayette, where he was awarded in 1997 the Hensarling-Chapman Endowed Professorship in Geology. He began independent consulting activities in 1991, and in 2001, he left academia for full-time consulting for clients ranging from one-man shops to supermajors. He rejoined UL-Lafayette as an adjunct professor from 2011 - 2018. He is an active researcher, receiving several million dollars in grants from federal, state, and industry sources, presenting numerous talks, including a 2019 AAPG Levorsen award, and publishing on a diversity of geoscience topics, including a Grover E. Murray Best Published Paper award in 2017. He is co-author of the inaugural GCAGS/GCSSEPM Transactions Best Student Paper award in 2018. He served as the GCAGS Publisher since 2006 and in various GCAGS/GCSSEPM Transactions editing capacities since 2006, including the 2014 and 2017 - 2022 Editor (named Permanent Transactions Editor in 2017), and Managing Editor since 2011, receiving a GCAGS Distinguished Service Award in 2018. He served as the General Chair for GeoGulf 2020 (70th GCAGS/GCSSEPM Convention), the 1st hybrid geoscience conference in the world. He is a Past President of the Lafayette Geological Society and served as its Editor and Publisher from 2002 - 2018. In 2018, he founded the Willis School of Applied Geoscience, reformulating decades of industry-training experience to provide alternative opportunities for graduate-level education. In 2020, he received an Honorary Membership from GCSSEPM. He also joined the LSU faculty as an adjunct professor in 2020. In 2021, he co-founded the Society of Applied Geoscientists and Engineers, serving as its President, General Chair for the SAGE 2022 Convention & Exposition, and Vice-Chair for the Benghazi International Geoscience & Engineering Conference 2022 (BIGEC 2022). POST TRAINING COACHING SUPPORT (OPTIONAL) To further optimise your learning experience from our courses, we also offer individualized 'One to One' coaching support for 2 hours post training. We can help improve your competence in your chosen area of interest, based on your learning needs and available hours. This is a great opportunity to improve your capability and confidence in a particular area of expertise. It will be delivered over a secure video conference call by one of our senior trainers. They will work with you to create a tailor-made coaching program that will help you achieve your goals faster. Request for further information about post training coaching support and fees applicable for this. Accreditions And Affliations

Business Relationship Management Professional (BRMP)® Business Relationship Management (BRM) embodies a set of competencies (knowledge, skills, and behaviors) to foster an effective business value-producing relationship between a service provider and its business partners. The BRM Discipline rests on solid research-based foundations verified and enhanced over a decade of successful implementations in leading organizations across the world. Proven to be equally effective for shared services including Human Resources, Finance, Legal, external service providers and others, BRM practices have enjoyed widespread adaptation in IT. The Business Relationship Management Professional (BRMP) training and certification program provides a foundational understanding of business relationship management (BRM) for individuals at every experience level, with the training and certification designed to provide a solid baseline level of knowledge. In other words, this course provides the 'why' and the 'what' - 'why' business relationship management is important to your organization and 'what' a BRM capability does to add value to your organization. This interactive course, with discussions, partnering activities, and periodic knowledge checks, will provide you with the opportunity to apply learning to your unique organizational situations, creating solutions that you can use immediately upon returning to your workplace. This practical knowledge will allow you to demonstrate immediate value in your role, as well as prepare you for the BRMP Certification exam. What You Will Learn This course provides a foundational understanding of Business Relationship Management. Upon completion of the BRMP® course, participant will be able to demonstrate their understanding: Explain what business relationship management is and the value it provides to an organization Articulate the need for an organization to move beyond traditional goals of profit and products to encompass those that are appropriate for a relationship-centered organization Describe the importance of integrating business relationship management into every element of their organization Define the importance of educating their organization that a mature BRM capability will evolve culture, build partnerships, drive value, and satisfy purpose Apply business relationship management to their organization's triple bottom line of people, purpose, and planet Explain the basic knowledge, skills, and mindsets of the business relationship management role Clarify the core business relationship management approaches, tools, and templates used to achieve results Illustrate the value and impact the BRM capability has on an organization by completing a draft of the BRM Capability Workbook BRM Introduction - The Bigger Picture Why BRM = why now? Relationship-centered organization Theory of 'relationshipism' Triple bottom line BRM defined Activity domains BRM challenges BRM Capability BRM capability framework Organizational purpose and strategy Now-to-new Evolve culture Build partnerships Drive value Satisfy purpose Limitless growth and improvement BRM Capability - Evolve culture Evolve culture framework Purposeful narrative Desired behaviors Influential relationships Personal growth BRM Capability - Build partnerships Build partnerships framework BRM role competency model Relationship maturity and quality Partnering mindsets Relationship discovery Relationship nurturing BRM Capability - Drive value What is value? Types of value Sources of value Drive value framework BRM role competency model Value discovery Value realization Value results BRM Capability - Satisfy purpose Satisfy purpose framework BRM role competency model Through the BRM capability Through the triple bottom line Social value BRM Capability - Wrap-up Evolve culture capability framework Build partnerships capability framework Drive value capability framework Satisfy purpose capability framework BRM Role Our purpose and what we believe Role clarity Single point of focus BRM Code of Ethics BRM Role Competency Model BRM mindset Scope of BRM role BRM role with organizational factors BRM Team Our purpose and what we believe BRM team definition BRM team purpose, mission, and vision Assessing the value of a BRM team Organizing a BRM team Leading a BRM team Transition management Coaching BRMs Closing - BRM Key Learnings Key learnings from each module Closing - BRMP Course Wrap-Up What to do in the next 30/60/90/365 days Digital badge After passing the exam Recap learning objectives Review learning objectives Review expectations Course feedback

Data centre infrastructure course description This course provides a foundation in data centre infrastructure technologies. It begins with a tour of virtualisation and the impact of this on the network before moving on to the spine and leaf design, how it works and how to scale. Layer 2 technologies enabling this architecture are studied in terms of the impact on the data centre. The course then progresses onto how Layer 3 technologies such as BGP, EVPN and VXLAN are used in data centre networks. The course then studies interconnecting data centres finishing with a section on automation and orchestration of both underlay and overlay networks. What will you learn Explain the spine and leaf architecture Recognise the impact of virtualisation, containers and orchestration on the network Describe how the following technologies are used in data centres: Multi port aggregation Overlay networks MBGP, VRFs, EVPN VXLAN COOP Data centre infrastructure course details Who will benefit: Staff involved with Data centres. Prerequisites: Network fundamentals for engineers Duration 2 days Data centre infrastructure course contents What is Ethernet? Data centres versus enterprise networks. Servers, Blades, Racks, Clusters, Storage, Virtual Machines, Hosts, guests, containers, orchestration. Virtual switches. Distributed switches. Live migrations (e.g. vMotion). IP addressing and VM traffic. Data centre network architecture Spine leaf design. North south traffic, East West traffic, Scaling: Ports, bandwidth. N+1 redundancy, ratio East West optimisation, oversubscription. 2 tier versus 3 tier Leaf/Spine. Pods. Underlay, Overlay L2 technologies STP vs link aggregation vs multi link aggregation. LACP, LLDP, CDP. Scalability. VLANs and VLAN pruning. L2 design recommendations. Disabling STP on edge ports. L3 technologies Underlay, Overlay, VXLAN, VTEP, VXLAN overlay forwarding, EVPN, IS-IS, COOP, MP BGP, VRFs, EBGP, IBGP, AS numbers, route reflectors. Anycast gateways. MTU considerations-for data and control planes. BUM traffic. Data centre interconnects Pods, fabrics, multi pods, multi fabric, multi site. VXLAN with BGP/EVPN Data center interconnect. Cloud integration, Inter Site Networks. Automation Automation and orchestration, Zero touch provisioning, Devops, Netops, telemetry automated configuration for underlay and overlay, SDN.

Essential IMS training course description The IP Multimedia Core Network Subsystem (IMS) is defined by 3GPP as a new mobile infrastructure. This course studies the discreet elements in the IMS. What will you learn Describe the IMS. Describe the IMS architecture. Explain how charging, security and QoS is handled in the IMS. Explain how the IMS supports service enablers such as Push to talk and Presence. Essential IMS training course details Who will benefit: Telecommunications staff. Prerequisites: Mobile communications overview Duration 2 days Essential IMS training course contents Mobile communications review The role of IP in telecommunications. GSM to IMS. Enhanced multimedia services, Push To, convergence, conferencing, roaming. What is IMS? What it is, why IMS, standard bodies: 3GPP, IETF, OMA, IMS services. MMD comparison. IMS architecture blocks Overview, IMS functions, IMS interfaces, IMS protocols, IMS elements, IMS reference points. Access network, IMS in GSM, CDMA, WiFi & PSTN networks. Core network. Application, Control and Call planes. HSS - User database Identification. The user database, role of HSS, SLF and multiple HSSs. 'Normal' identities, IMPI, IMPU. IMS signalling: SIP What is SIP? SIP URI, contact address, UAs, Proxies, basic SIP call flow, SIP sessions. IMS other protocols Megaco, Diameter, XML, XCAP, COPS, RTP/RTCP, SDP, H.324M, IM and MSRP. Call/Session Control Call Session Control Functions (CSCF). Domains. Home networks, visited networks. CSCF and SIP. P-CSCF, P-CSCF discovery, P-CSCF functions. I-CSCF, DNS and I-CSCF. S-CSCF, S-CSCF functions, ENUM lookups. QoS. Example call flows. IMS services Open service platform, Application Servers, profiles, AS interface with S-CSCF. 'Normal' services (Caller ID, Call waiting, transfer…) Push to talk Over Cellular (PoC), IMS conferencing, Group management, IMS Presence, IMS Messaging. Other possible applications. Media servers. (MRFC, MRFP). Gateways IMS PSTN procedures, BGCF, PSTN interface. SGW, MGCF, MGW Charging Architecture, Offline, online and flow based charging, charging reference points, CCF, DIAMETER, ICID, IOI. IMS security IMS security architecture, identities, AAA, public and private user ID, service filters, Cx interface, RADIUS, Diameter protocol, 3GPP AKA, integrity, privacy, NDS, IPSEC, trust, assertion.

Why Choose Complete Rhino 3D and V-Ray Training Program: Basic to Intermediate? Learn Rhino 3D and V-Ray for Rhino Basic to Intermediate Training Course. Suitable for beginners and experienced users alike, this program equips you with vital modeling and rendering skills. Opt for in-person or live online sessions. Click here for more info: Website Duration: 16 hours. Approach: 1-on-1 Sessions, Customized Content and Flexible Learning. Scheduling Flexibility: Tailor your sessions from Mon to Sat between 9 am and 7 pm. Course Title: Complete Rhino 3D and V-Ray Training Program: Basic to Intermediate - 16 Hours Session 1-2: Introduction to Rhino 3D Basics (2 hours) Understanding Rhino Interface: Navigating toolbars, command line, and properties panel. Basic Geometric Shapes: Creating lines, circles, and polygons with precision. Editing Tools: Mastering move, rotate, scale, and mirror commands. Session 3-4: Advanced Rhino 3D Modeling Techniques (2 hours) Curves and Surfaces: Delving into NURBS curves, creating complex surfaces, and blending techniques. Modeling Aids: Utilizing grids, snaps, and construction planes for accuracy. Organizing with Layers: Managing complex projects efficiently. Session 5-6: Introduction to V-Ray for Rhino (2 hours) V-Ray Interface: Understanding V-Ray toolbar and settings. Basic Lighting: Exploring different light types and their effects on scenes. Materials: Creating realistic materials, understanding diffuse, reflection, and transparency. Session 7-8: Intermediate V-Ray Concepts (2 hours) Advanced Lighting: Mastering HDRI lighting, creating natural outdoor lighting scenarios. Texture Mapping: Understanding UV mapping, applying textures seamlessly. Rendering Optimization: Reducing noise, optimizing settings for quicker, high-quality renders. Session 9-10: Rhino-V-Ray Integration (2 hours) Model Preparation: Optimizing Rhino models for V-Ray rendering. Advanced Material Manipulation: Creating complex materials, incorporating textures. Interactive Rendering: Real-time adjustments for immediate feedback. Session 11-12: Advanced Modeling Techniques in Rhino (2 hours) Advanced Surface Modeling: Creating organic shapes, advanced surfacing techniques. Precision Modeling: Advanced curve editing, filleting, and trimming. Working with 3D Text: Creating custom 3D text for design projects. Session 13-14: Scene Composition and Presentation (2 hours) Camera Settings: Understanding focal length, depth of field, and perspective. Scene Composition: Design principles, rule of thirds, focal points, and balance. Post-Processing: Enhancing renders in Photoshop, adding atmosphere and context. Session 15-16: Final Project and Portfolio Review (2 hours) Final Project Work: Participants apply learned skills to create a complex 3D scene. Instructor-led Critique: Feedback session for final projects. Portfolio Guidance: Tips for selecting the best works for a professional portfolio. By the end of this 16-hour course, participants will have a deep understanding of both Rhino 3D and V-Ray, allowing them to create intricate 3D models and produce high-quality, realistic renders for various applications. Upon completing the Rhino 3D and V-Ray Basic to Intermediate Training Course, participants can expect to achieve the following learning outcomes: Proficiency in Rhino 3D and V-Ray: Develop a comprehensive understanding of Rhino 3D and V-Ray interfaces, tools, and functionalities, enabling participants to navigate and utilize the software effectively. 3D Modeling Skills: Master the art of creating captivating 3D objects and shapes using Rhino 3D, including editing, transforming, and refining designs for diverse applications. Material Application: Acquire the ability to apply and customize materials and textures to enhance the visual appeal and realism of 3D models, elevating the quality of designs. Lighting Techniques: Gain expertise in utilizing V-Ray lighting tools, such as V-Ray lights and HDRI maps, to achieve striking lighting effects in rendered scenes. Rendering Excellence: Learn to optimize V-Ray render settings, control global illumination, and apply dynamic effects like depth of field and motion blur for high-quality and impressive renders. Advanced Modeling: Develop skills in advanced modeling techniques, including handling curves, surfaces, and solids, enabling participants to tackle complex design challenges. Lighting Mastery: Acquire the knowledge and expertise to create and adjust artificial lights, utilize the Sun and Sky system, and craft custom HDR images for realistic lighting setups. Seamless File Management: Understand various file formats for exporting and importing 3D models, facilitating efficient collaboration and preparation for 3D printing. Creative Problem-Solving: Enhance creative thinking and problem-solving abilities through hands-on practice and exploration of diverse design scenarios. Professional Presentation: Learn post-production techniques in Photoshop to enhance renders and create visually appealing design presentations for effective communication. Continuous Learning: Access valuable resources and tips to encourage continuous learning and professional growth in Rhino 3D and V-Ray. Skills You'll Gain: Master Rhino 3D basics: Curves, surfaces, modeling aids, and precision techniques. Explore intermediate V-Ray concepts: Advanced lighting, material manipulation, and texture mapping. Understand Rhino-V-Ray integration for seamless 3D modeling and rendering workflows. Optimize render settings for high-quality output and reduced rendering times. Career Opportunities: Upon completing this program, you'll be prepared for various roles in the design and visualization industry, such as: 3D Modeler: Create detailed 3D models for diverse industries, including architecture and product design. Architectural Visualizer: Produce realistic architectural visualizations for presentations and marketing materials. Product Designer: Develop visually appealing product prototypes and visualizations for marketing and manufacturing. Visualization Specialist: Work in design studios, advertising agencies, or game development companies, creating immersive visual content. Freelance Designer: Offer your skills on platforms like Upwork or Fiverr, providing 3D modeling and rendering services to clients worldwide. Solidify Rhino 3D Expertise: Master foundational modeling skills, including intricate geometries and surface manipulation, establishing a robust foundation for your 3D design journey. Unlock V-Ray for Rhino: Explore the potential of V-Ray for Rhino, learning to create mesmerizing visualizations and achieve lifelike rendering results that bring vitality to your designs. Enhance Visual Appeal: Grasp advanced lighting techniques, material application, and texture methods to elevate the visual allure of your 3D creations, making them more immersive and authentic. Explore Advanced Concepts: Delve into optimizing rendering settings, post-production tactics, and efficient workflows, advancing your design proficiency to higher levels. Hands-On Experience: Engage in practical exercises and real-world projects, applying your skills in practical contexts to enrich your portfolio and showcase your capabilities effectively. Certification of Achievement: Receive a valuable Certificate of Completion, confirming your expertise in Rhino 3D and V-Ray for Rhino, enhancing your professional credibility as a skilled designer. Flexible Learning Paths: In-Person or Live Online: Opt for in-person sessions, fostering collaborative learning, or choose live online classes for convenience and accessibility, tailoring your learning experience to your preferences. Personalized Guidance: Regardless of your chosen format, benefit from tailored instruction and guidance, ensuring optimal learning outcomes and continuous support throughout the course.

Rhino Courses for Architects

Rhino 3d face to face training customised and bespoke Online or Face to Face