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Transforming the Landscape of Bulk Material Management through Structural and Mechanical Design

Across the vast expanse of industrial operations, where bulk material management is paramount, Little P.Eng. Engineering has etched a significant mark. The firm’s reputation in structural and mechanical design extends beyond just equipment, touching several critical aspects of material management. This article will delve into how Little P.Eng. Engineering is transforming four pivotal sectors: Material Handling Facilities & Building, Bulk Material Transport, Bulk Material Treatment, and Bulk Material Transfer.

Little P.Eng. Engineering is an American / Canadian company that provides economical bulk material handling engineering services that are designed to meet the specific needs of our customers. We have a long history of partnering with supervisors, engineers, planners, and vendors, across a wide variety of industries to provide bulk material handling engineering solutions and systems that improve safety and productivity. Whether you need help designing, installing or maintaining any aspect of your bulk material system, we have the skills and experience to meet your needs.

Our bulk material handling engineering specialists can re-engineer and upgrade existing systems while providing customer solutions and processes. We work with customers through every part of the engineering process to create a one-stop destination for all their needs.

We also work to provide superior customer service that extends well beyond the initial installation or execution of a solution. Our customers can contact us and receive immediate assistance whenever needed for continued support that keeps businesses up and running without having to worry about delays or downtime.

1. Material Handling Facilities & Building

Material handling facilities are the heartbeats of many industries. From mining to agriculture and manufacturing, they facilitate the smooth and efficient movement of bulk materials.

Understanding Infrastructure Needs: Little P.Eng. Engineering begins its design process with a comprehensive study of the client’s requirements. The aim is to understand the volume of material to be handled, the rate of throughput, and the kind of materials involved.
Structural Integrity: Buildings designed for material handling need robust foundations. Little P.Eng. ensures that every facility they design can withstand the tremendous loads and stresses associated with bulk material handling.
Optimized Workflow Design: Beyond just structural integrity, Little P.Eng. focuses on creating a streamlined workflow within these buildings. Through the strategic placement of equipment, chutes, conveyors, and storage areas, they ensure that materials move seamlessly, minimizing disruptions and maximizing efficiency.
Innovation at the Forefront: Little P.Eng. is known for incorporating innovative solutions like automated sorting systems, advanced ventilation systems, and sustainable energy solutions, making these facilities both state-of-the-art and environmentally responsible.

2. Bulk Material Transport

Once materials are sourced and sorted, they need to be transported. Little P.Eng. Engineering has a vast portfolio of solutions tailored to this very requirement.

Vehicle Design: Depending on the type of material, the firm designs transport vehicles, whether trucks, railcars, or even conveyor systems. Their designs emphasize both capacity and safety, ensuring that large volumes can be transported without risks.
Infrastructure Design: Little P.Eng. also specializes in designing transport-related infrastructure. This includes everything from loading and unloading docks to advanced conveyor belt systems and even pneumatic transport solutions.
Addressing Challenges: Transporting bulk material is fraught with challenges like spillage, degradation, and contamination. Little P.Eng.’s designs account for these challenges, providing solutions such as sealed transport containers and dust suppression systems.

3. Bulk Material Treatment

Treatment of bulk materials, whether it’s refining, purification, or simply grading, is a complex process. Little P.Eng.’s role in this domain is critical.

Treatment Facility Design: Little P.Eng. engineers facilities where bulk materials undergo various treatment processes. Their designs accommodate equipment like crushers, separators, graders, and more, ensuring they operate at optimal capacities.
Safety and Compliance: Treatment processes can sometimes involve chemicals or generate waste. Little P.Eng. prioritizes safety and regulatory compliance, designing facilities that minimize environmental impact and risks to workers.
Energy Efficiency: Many treatment processes are energy-intensive. Recognizing this, Little P.Eng. incorporates energy-saving solutions, from efficient machinery layouts to the use of alternative energy sources, thus driving down operational costs.

4. Bulk Material Transfer

Transferring bulk materials from one point to another, or even from one mode of transport to another, is a task that requires precision and speed.

Transfer Point Design: Little P.Eng. is adept at creating transfer points that minimize material loss. Whether it’s transferring grain from a truck to a silo or coal from a railcar to a ship, their designs ensure smooth transitions.
Material Integrity: When transferring materials, there’s a risk of contamination or degradation. Little P.Eng. addresses this by designing enclosed transfer systems or integrating rapid sealing mechanisms.
Automation and Technology: In an age of technology, Little P.Eng. leverages advanced automation systems in their transfer point designs. This not only speeds up the transfer process but also reduces human errors.

Little P.Eng.’s Journey to Excellence

At its core, Little P.Eng. Engineering’s success can be attributed to its comprehensive approach. Instead of viewing these four sectors in isolation, they consider them parts of a holistic system. Their designs, thus, seamlessly integrate across the spectrum, from handling facilities to transfer points.

Client-Centric Approach

Little P.Eng. has always prioritized the unique requirements of its clients. They understand that every industry and even individual businesses within those industries can have varying needs. This client-centric approach has resulted in solutions that aren’t just efficient but are also tailored to the specific challenges and objectives of their clientele.

Embracing Future Challenges

As the world continues to evolve, so do the challenges associated with bulk material management. Little P.Eng. Engineering, with its commitment to research, innovation, and adaptability, is well-equipped to tackle these challenges head-on.

With a growing demand for efficiency, safety, and sustainability, industries will find in Little P.Eng. a partner that’s not just equipped to meet these demands but one that’s committed to exceeding expectations.

In the world of bulk material management, Little P.Eng. Engineering stands tall, not just as a solution provider but as an innovator and trailblazer. Through their expertise in structural and mechanical design across the four critical sectors detailed in this article, they’re not just shaping industries but also the very future of bulk material management.

Little P.Eng. Engineering’s Bulk Material Handling Team is a dynamic and diverse group with experience in conveying systems – mechanical and pneumatic; chutes transfers, dust control & collection, etc. Our experience in material handling for the power and manufacturing industries will provide rapid development of realistic concepts, and reliable designs which optimize operating and maintenance cost for your project. Our goal will be to not only deliver successful design to the field but to provide you with the information you need to make informed decisions to meet your objectives.

For industries such as mining, refining, manufacturing, chemical, agricultural, and food and beverage, this experience in material handling provides rapid development of realistic concepts, and reliable designs which optimize operating and maintenance costs for your project.

Transforming the Landscape of Bulk Material Management through Structural and Mechanical Design

Industries served through our Bulk Material Handling Engineering Services

Grains
Mining
Mills
Metals
Manufacturing
Maintenance
Fabrication
Agriculture
Packaging
Safety
Fire & Explosion
Ship/Barge Loading & Unloading
Steel and Metals Industry
Energy and Power Generation Industry
Water and Wastewater Industry
Oil & Gas Industry
Chemicals and Plastics Industry
Pulp & Paper Industry
Facility Services
Residential Buildings Sector
Hospitality and Hotel Sector
Commercial Buildings Sectors
Sports and Stadia Buildings Sector
Education Buildings Sector
Government Buildings Sector
Hospitals Engineering Services
Biotech / Pharmaceutical – Engineering Services
Food & Beverage – Engineering Services

We offer the following Engineering Services within our Bulk Material Handling Engineering Services :

Discrete Element Modeling (DEM)
Calculation based modeling
Allows for visualizing results
Particle velocity
Forces (shear and normal) and moments (bending and torsional)
Acceleration and material scatter
More than just flow simulation of bulk materials
wear Patterns
Mixing
Center loading
DEM Benefits
Reduced Dust Levels
Reduced Noise
Reduced Chute Plugging
Better Conveyor Tracking (Center Loading)
Reduced Belt Cover Wear
Reduced Chute Wear
Reduced Equipment Wear
Structural Engineering Services
Foundation Design
Concrete Structure Design
Steel Structure Design
Piping Engineering Services

Bulk material handling engineering specifically focuses on the design, processing, and transportation of bulk materials, which can include items such as ores, coal, minerals, and grains, among others. These materials often present unique challenges due to their bulk nature, including issues related to flowability, abrasiveness, corrosiveness, weight, and other specific characteristics. Here are the various aspects of bulk material handling engineering services:

Storage Solutions:
Design and layout of silos, bins, and stockpiles
Assessment of material flow properties to reduce issues like bridging or rat-holing
Conveyor Systems:
Design and optimization of belt, screw, chain, and pneumatic conveyors
Selection of appropriate conveyor belts, idlers, and drives
Loading and Unloading Systems:
Railcar and truck loading/unloading facilities
Ship and barge loading/unloading equipment
Reclaiming Systems:
Design of stacker-reclaimers, bucket wheel reclaimers, and scraper reclaimers
Size Reduction Equipment:
Crushers, grinders, and milling equipment
Sizers and chutes to manage particle sizes
Screening and Sorting:
Vibrating screens, trommels, and sorters
Density separation using jigs or cyclones
Feeding and Metering Equipment:
Feeders for accurate and controlled material flow
Rotary valves, weigh feeders, and volumetric feeders
Material Transfer:
Chutes, hoppers, and gates
Transfer tower and junction house design
Dust Control and Suppression:
Dust collection and filtration systems
Wet suppression and foam suppression systems
Safety and Environmental Considerations:
Explosion and fire protection in dusty environments
Erosion control and spill prevention
Flow Aids and Devices:
Vibrators and air cannons to aid material flow
Flow liners and internal coatings
Bulk Material Testing:
Evaluating flowability, abrasiveness, and other material properties
Moisture content and material density testing
Rail and Marine Infrastructure:
Rail siding design and layout
Port and harbor infrastructure for bulk material export/import
Automation and Controls:
Automated monitoring of material levels in bins and silos
Control systems for conveyor speed, material flow, and routing
Maintenance and Wear Protection:
Wear liners and abrasion-resistant materials
Maintenance strategies and schedules
Bulk Material Transport:
Pipeline transport for slurry and other bulk fluids
Pneumatic transport systems for powders and granules
Economic Analysis:
Cost estimation for bulk material handling projects
Return on investment (ROI) calculations
Regulatory Compliance and Standards:
Ensuring designs meet relevant industry standards
Adherence to safety and environmental regulations
Continuous Improvement and Upgrades:
Evaluation of existing systems for performance enhancement
Retrofitting and upgrading older infrastructure
Consultation and Advisory Services:
Providing expertise on specific bulk material challenges
Assisting with vendor and equipment selection

Given the unique nature and challenges of handling bulk materials, these services are essential to ensure efficient, safe, and economical processing, transportation, and storage. Properly designed and managed systems reduce product loss, minimize environmental impacts, and ensure safety while optimizing costs.

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Located in Calgary, Alberta; Vancouver, BC; Toronto, Ontario; Edmonton, Alberta; Houston Texas; Torrance, California; El Segundo, CA; Manhattan Beach, CA; Concord, CA; We offer our engineering consultancy services across Canada and United States. Meena Rezkallah.

Innovating Pipeline Rehabilitation: Pipe CIPP Lining Engineering Design Services as per ASTM F1216

In the dynamic world of plumbing and pipe rehabilitation, Cured-In-Place Pipe (CIPP) lining stands as a testament to the industry’s progress and innovation. Pioneering a non-invasive, cost-effective, and efficient approach to pipeline repair, CIPP lining engineering design services have carved a significant niche in the industry. Adherence to the ASTM F1216 standard, set by the American Society for Testing and Materials, has further cemented the integrity and reliability of these services.

CIPP Lining: A Brief Overview

CIPP lining is a trenchless rehabilitation method that effectively repairs existing pipelines without the need for excavation. This process involves inserting and running a felt lining into a pre-existing pipe that is impregnated with a specially formulated resin. This resin is then cured, essentially creating a “pipe within a pipe.”

The CIPP method addresses a wide array of issues, such as leaks, corrosion, root intrusion, and age-related wear and tear, without disrupting the landscape or the daily activities of businesses or households.

CIPP Lining Engineering Design Services

CIPP lining engineering design services employ advanced technology and innovative engineering principles to create effective, long-lasting solutions for pipeline problems. These services are critical to accurately assessing the damage, designing the CIPP liner, implementing the solution, and ensuring successful pipeline rehabilitation.

These engineering design services consist of various steps, such as:

Inspection: Before any design work can begin, the pipe’s condition needs to be assessed using closed-circuit television (CCTV) inspection and other technologies. This inspection enables engineers to evaluate the damage extent and pinpoint its location.
Design: Based on the inspection, engineers design the CIPP liner considering factors such as pipe diameter, length, material, operating conditions, and the type and extent of damage.
Installation: This step involves inserting the designed liner into the damaged pipe and curing it using hot water, steam, or UV light.
Post-installation Inspection: The final step involves inspecting the rehabilitated pipe to ensure the CIPP liner is correctly installed and functioning as expected.

The Role of ASTM F1216

The ASTM F1216 – “Standard Practice for Rehabilitation of Existing Pipelines and Conduits by the Inversion and Curing of a Resin-Impregnated Tube,” is a globally recognized standard that guides the CIPP lining process. It prescribes the material requirements, resin preparation, inversion process, curing method, and testing techniques for CIPP lining.

Adherence to this standard ensures that the CIPP lining engineering design services meet the necessary quality and safety standards. It also guarantees the end product’s durability, structural integrity, and optimal functionality.

Benefits of CIPP Lining Engineering Design Services

CIPP lining engineering design services offer numerous benefits, such as:

Durability: CIPP linings have a lifespan of up to 50 years, making them a long-lasting solution.
Non-disruptive: Being a trenchless method, CIPP lining causes minimal disruption to daily activities and avoids damaging landscapes or structures.
Versatility: CIPP lining is suitable for various pipe materials and diameters, making it a versatile solution.
Cost-effective: CIPP lining eliminates the need for excavation and extensive manual labor, significantly reducing costs.
Efficiency: The entire CIPP lining process can often be completed in a day, making it an efficient solution for pipeline rehabilitation.

Among the many engineering firms providing CIPP lining design services, Little P.Eng. Engineering has distinguished itself as a leader. Leveraging a combination of industry expertise, innovation, and adherence to the ASTM F1216 standard, the firm has been able to provide high-quality, efficient, and reliable pipeline rehabilitation services.

Firstly, the firm’s deep-rooted understanding of pipeline systems is undeniable. They have a team of dedicated professional engineers (P.Eng.) who bring a wealth of knowledge and experience to the table. Their engineers understand the intricacies of different pipeline materials, their response to various environmental conditions, and potential failure modes.

Their specialization in CIPP lining, a modern, trenchless pipeline rehabilitation method, has allowed them to handle a broad range of pipeline issues effectively. Whether it’s handling minor leaks, major corrosion issues, or extensive root intrusion, their team is adept at designing and implementing the appropriate CIPP lining solution.

Adherence to the ASTM F1216 standard has been a cornerstone of Little P.Eng. Engineering’s approach to CIPP lining engineering services. This commitment ensures that the resin preparation, inversion process, curing methods, and testing techniques used meet the highest quality and safety standards. It also guarantees that the resulting CIPP lining possesses the durability, structural integrity, and functionality necessary for long-term pipeline performance.

Moreover, Little P.Eng. Engineering is known for its innovative approach. They harness the latest technologies and engineering principles to improve the effectiveness and efficiency of their CIPP lining design services. This includes using state-of-the-art CCTV technology for initial pipeline inspection and advanced curing methods to ensure optimal resin curing.

Lastly, the firm’s dedication to customer satisfaction sets them apart. They understand that every client has unique needs and circumstances, and they strive to provide tailored solutions that are both effective and cost-efficient. They also prioritize transparent communication, ensuring their clients understand every aspect of the rehabilitation process.

In conclusion, Little P.Eng. Engineering’s deep expertise, innovative approach, and commitment to customer satisfaction make them a preferred choice for CIPP lining engineering design services. Their rigorous adherence to ASTM F1216 further assures clients that they are receiving high-quality, safe, and durable pipeline rehabilitation solutions. The combination of these factors positions Little P.Eng. Engineering as a reliable partner in the industry, capable of effectively addressing a wide array of pipeline challenges.

Conclusion

In the realm of plumbing and pipeline rehabilitation, CIPP lining engineering design services as per ASTM F1216 have proven to be a game-changer. By providing a non-invasive, cost-effective, and efficient solution to pipe repair, they have redefined traditional methods. As the industry continues to innovate, the importance of these services and the ASTM F1216 standard’s adherence will only grow, paving the way for a future where pipeline problems are no longer a headache but a manageable, efficient process.

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Meena Rezkallah, P.Eng.:A Trailblazer in Piping and Structural Engineering Services

Renowned for his diverse and highly specialized expertise, Meena Rezkallah, P.Eng. has made an indelible mark on the engineering sector, not only in Canada but also in the United States. With his primary focus on piping design, piping stress analysis, tanks design, seismic bracing design, pipe rehabilitation, and structural engineering services, he has transformed businesses, set new standards, and led the engineering industry towards innovative solutions.

Rezkallah’s journey in the field began after graduating from university with a degree in Structural Engineering. His inherent interest in the design and optimization of piping systems spurred him to dedicate his career to this complex discipline, prompting him to pursue higher education and specialized certifications in this field.

A professional engineer, Rezkallah has consistently excelled in providing piping design and piping stress analysis services. These are critical areas in industries such as oil and gas, power generation, and petrochemicals, where the safe and efficient operation of complex piping systems can make a significant difference in productivity and environmental safety. With his deep understanding of the intricacies involved in designing, inspecting, and maintaining these systems, Rezkallah has helped numerous organizations enhance their operational efficacy.

In addition to his work in piping design and stress analysis, Rezkallah has also carved out a niche for himself in tanks design. Tank design, crucial in sectors like water treatment, chemical processing, and oil and gas, requires a comprehensive understanding of materials, structural behavior, and safety protocols. His practical knowledge and innovative methodologies have resulted in designs that exceed industry standards, providing his clients with reliable, efficient, and long-lasting storage solutions.

Seismic bracing design is another area where Rezkallah has displayed exceptional acumen. With the increased recognition of seismic risks, especially in certain regions of Canada and the United States, designing infrastructure that can withstand potential seismic events has become increasingly important. Through his expert application of modern design principles and innovative materials, Rezkallah has ensured that the structures he works on are resilient and safe in the face of potential seismic threats.

Moreover, as a structural engineer, Rezkallah has applied his knowledge of physics, materials science, and empirical research to create efficient, safe, and innovative designs for a variety of structures. His attention to detail, understanding of safety requirements, and ability to innovate have contributed to his reputation as a leading structural engineer.

Over the course of his career, Rezkallah has worked with a broad spectrum of clients, from small enterprises to multinational corporations. Despite the size of the project, his commitment to delivering high-quality, cost-effective, and innovative solutions has remained steadfast. His dedication to his work, combined with his leadership skills and continuous efforts to stay abreast of the latest advancements, have earned him widespread respect and recognition in the industry.

What sets Rezkallah apart is not only his exceptional technical skills but also his strong ethical standards and commitment to his clients. His philosophy is centered around developing solutions that not only meet the specific needs of the project but also ensure the safety, sustainability, and longevity of the structure.

In conclusion, Meena Rezkallah, P.Eng., with his extensive expertise in the fields of piping design, piping stress analysis, tanks design, seismic bracing design, and structural engineering services, has made significant contributions to the engineering industry across Canada and the United States. His remarkable career is a testament to his relentless dedication, innovative approach, and impeccable technical acumen, making him a true vanguard in his field.

Meena Rezkallah: A Paragon of Expertise & Innovation in Piping & Structural Engineering Services

In the realm of engineering, few have achieved the level of comprehensive expertise and recognition that Meena Rezkallah, P.Eng. enjoys. With a storied career spanning over several decades, Rezkallah has made significant strides in the specialized areas of piping design, piping stress analysis, tanks design, seismic bracing design, pipe rehabilitation, and structural engineering services. His work has not only been confined to his home country of Canada but has had significant influence across the United States, garnering the appreciation of a wide variety of industries.

Educational Background and Early Career

Rezkallah’s interest in mechanical and structural design was evident from an early age. Following this passion, he pursued a degree in Structural Engineering, focusing on design all types of structures, going deep into finite element analysis theory, material science – areas fundamental to his future career trajectory. With an in-depth understanding of these key concepts, Rezkallah set his sights on becoming a Professional Engineer (P.Eng.).

Acquiring the P.Eng. designation, a testament to his competence, ethical standards, and commitment to the profession, was a crucial milestone in his career. This title, recognized across Canada, propelled Rezkallah’s career, offering him numerous opportunities to apply his skills in real-world scenarios.

Rezkallah’s Journey in Piping Design and Stress Analysis

Early in his career, Rezkallah recognized the importance of specialized skills in niche areas. His interest piqued by the complex nature of piping design and stress analysis, he pursued further education and hands-on training in these domains. His aptitude for understanding the complexities of various piping systems, the fluid dynamics involved, and the influences of external and internal stresses on these systems helped him carve a niche in this field.

Throughout his career, Rezkallah has been instrumental in designing, inspecting, and maintaining critical piping systems across industries such as oil and gas, power generation, and petrochemicals. With a keen eye for detail and an unwavering commitment to safety and efficiency, Rezkallah has contributed to enhancing operational efficacy for numerous businesses, while adhering to strict environmental safety norms. His contributions to this field are marked by his development of innovative solutions that simultaneously address cost-effectiveness, durability, and safety.

Delving Into Tank Design

Parallel to his work in piping design and stress analysis, Rezkallah delved into the complex field of tank design. Industries such as water treatment, chemical processing, oil and gas, and even food and beverage heavily rely on well-designed, efficient tanks for storage and processing purposes. Recognizing the diverse requirements and strict safety norms, Rezkallah developed an approach to tank design that combined practical knowledge with innovative methodologies.

His tank designs are celebrated for their efficiency, longevity, and adherence to safety protocols. His understanding of materials, structural behavior, and safety standards have enabled him to create designs that not only meet but often exceed industry benchmarks. His work in this area has provided his clients with reliable, cost-effective, and efficient storage solutions that have significantly improved their operational capabilities.

Excellence in Seismic Bracing Design

In a world increasingly aware of the risks posed by natural disasters, seismic bracing design has emerged as a critical aspect of modern infrastructure development. Rezkallah, with his forward-thinking approach and dedication to creating safe, resilient structures, has become a leading name in seismic bracing design in regions susceptible to seismic activity, including parts of Canada and the United States.

Drawing on his vast knowledge and experience, Rezkallah has applied modern design principles and cutting-edge materials to ensure that the structures he works on are not just resilient but also meet all required safety standards. His designs incorporate a thorough understanding of local geography, soil composition, building materials, and architectural designs to deliver structures that can withstand potential seismic threats, thereby safeguarding lives and property.

Groundbreaking Work in Structural Engineering Services

Beyond his specific niches, Rezkallah has also made substantial contributions to the broader field of structural engineering. His work in this area is characterized by a deep understanding of physics, materials science, and empirical research, which has allowed him to create efficient, safe, and innovative designs for a myriad of structures. His commitment to innovation and safety has set new benchmarks in structural engineering, influencing peers and shaping industry trends.

His structural engineering projects encompass a wide range of structures, from commercial and residential buildings to infrastructure such as bridges and tunnels. Rezkallah’s structures are marked by their durability, cost-effectiveness, aesthetic appeal, and, most importantly, their safety and resilience. His designs, while being functional, also take into consideration the environmental impact and sustainability, underlining his commitment to responsible engineering.

The Role of Ethics and Client Commitment

Integral to Rezkallah’s successful career has been his unwavering commitment to his clients and his adherence to strong ethical standards. He firmly believes in working in the best interest of his clients, always striving to provide solutions that are not just effective but also safe, sustainable, and long-lasting. This philosophy has not only earned him the trust of his clients but has also set him apart as a professional in his field.

Rezkallah has worked with a diverse range of clients, from small enterprises to multinational corporations, handling projects of varying complexities and sizes. Regardless of the scope of the project, he has always prioritized quality, innovation, and cost-effectiveness, earning him widespread respect and recognition within the industry.

Conclusion

With his expertise spanning across several complex and critical areas of engineering, Meena Rezkallah, P.Eng. has made a lasting impact on the industry across Canada and the United States. His long career in providing services in piping design, piping stress analysis, tanks design, seismic bracing design, and structural engineering is a testament to his dedication, acumen, and innovative approach.

From developing safer, more efficient piping systems and tank designs, to ensuring the safety and resilience of structures in earthquake-prone areas, Rezkallah’s contributions to his field are both far-reaching and profound. His work continues to inspire other engineers, driving them towards higher standards of excellence, safety, and innovation. Through his continuing efforts, Rezkallah has not only enhanced the profession of engineering but has also contributed significantly to building a safer, more efficient world.

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Seismic Bracing, Seismic Bracing Products Selection Services for all Non-Structural Building Utility

Meena Rezkallah, P.Eng.

Seismic Bracing, Seismic Bracing Products Selection Services for all Non-Structural Building Utility

Our staff have experience designing seismic bracing and seismic restraint systems for 20 years, across Canada, United states and globally. We provide complete (building code compliant) engineering design services for MEP support systems. Our services include the custom design and selection of seismic restraint braces, cables, anchors. We are specialized in MEP non-structural seismic restraint engineering services, and seismic bracing products selection services for the construction industry.

Little P.Eng. engineering approach to seismic bracing design provides significantly enhanced value to both owners and contractors. Little P.Eng. engineering provides project specific designs that consider the dynamic response of the structure and supported distributed MEP systems. This approach results in designs that are more cost effective than simply using National Building code of Canada NBCC, International Building Code IBC, ASCE 7 simplified static design methods.

Little P.Eng. engineering experience has included seismic restraint design for military faculties, such as the Marine Corps Base Camp Blaz is a U.S. Marine Corps facility located in the village of Dededo in northwest Guam. Since the founding of Little P.Eng. engineering, Little P.Eng. engineers have served seismic bracing procurement and supply entity, and seismic bracing installation contractors. Little P.Eng. engineering has completed seismic bracing design, equipment seismic restraint design, and seismic equipment support/bracing design numerous aspects projects with for the following types of industries:

Our experienced professional engineers have developed several innovative techniques for substantially reducing the number and sizes of seismic bracing, using advanced concepts in bracing hysteric behavior.

Types of Seismic Bracing Systems

Rigid Bracing, Cable Bracing
Trapeze Hangers
Suspended Hangers
Branch Line Restraints
Rod Stiffeners

Installation Applications

Mechanical
Electrical, Low Voltage
Piping, Plumbing
HVAC, Duct
Fire Sprinkler

Seismic Bracing Solutions for:

MEP Contractors
Construction Companies
Design/Architect Firms
Building Owners
Retrofit Projects
Building Code Compliance

Other Engineering Services

Custom MEP (Mechanical, Electrical, Plumbing) Support Engineering We supply custom analyses and evaluate individual systems within the overall context of the entire commercial building project. This allows the architect, other engineers, contractor, sub-contractors, and/or building owners to devise systems that best integrate with the building’s architectures and desired performance.
Engineered Design Layouts
First, we take a multi-hazard approach towards commercial building designs that account for the potential impact of seismic forces as well as any major hazards to which the area is vulnerable.
Second, we evaluate performance-based requirements, which may exceed the minimum life safety requirements of current seismic codes, and establish the appropriate needs for the building in regards to seismic MEP.
Third, and as important as the others, because earthquake forces are dynamic and each building responds according to its own design complexity, we work collaboratively with all the building design engineers and sub-contractors to use the best methods and seismic products available.
Seismic Calculations Earthquake resistant design requires calculations of earthquake forces on buildings and structures. FSS works to identify the appropriate calculations appropriate for the location of the building.
Review of Full Design Package for City Permit FSS goes through an entire checklist from site photos to drawings to calculations to complete the full submittal package needed.
Frame Design and Fabrication We help the MEP contractors with any issues regarding the frame design of the structure and any fabricated assemblies.
Shaft Support Engineering Force Support Services helps to solve the issues and do the calculations for:

Shear stresses due to the transmission of torque (due to torsional load)
Bending stresses (tensile or compressive due to the forces acting upon the machine elements like gears and pulleys as well as the self weight of the shaft)
Stresses due to combined torsional and bending loads

Vibration Isolation Design We contribute to the process of designing the best and most efficient way to isolate undesirable movement and prevent the transfer of vibration throughout commercial buildings for MEP equipment and issues.
Rooftop Support Engineering FSS reviews roof access walkways, cable tray supports and pipe supports to add value engineering to every building we work with in conjunction with our MEP contractors. These types of additions help get maintenance workers across the roof safely and quickly while minimizing the impact of the roof infrastructure.
Piping Thermal Expansion Engineering FSS understands that as the pipe temperature changes from the installation condition to the operating condition, it expands or contracts and therefore it has the potential of generating enormous forces and stress on the system. We work to design the best possible solution for dealing with pipe expansion so that it can be absorbed without creating undue force or stress. Providing the proper flexibility is one of the major tasks in the design of piping systems.
Equipment Anchorage Design and Calculations We are problem-focused on critical areas related to equipment anchorage design and calculations:

Distribution of non-structural design forces over the height of the building
The response modification coefficients for non-structural components
The over-strength factors used in the design of non-structural anchorage
Non-structural component and system performance metrics

Jobsite Visits for Inspection Support and Installation Training Workplace inspections help prevent delays in completing jobs and meeting deadlines. We listen to the concerns of workers and supervisors; we work to gain further understanding of the job, recommend corrective changes and/or procedures. By being on-site when issues arise, we are present to eliminate problems and keep the job on-track.
Computer Aided Design (CAD) Support CAD is computer software used to create 2D and 3D models and designs. FSS helps to supply, decipher, correct or change, when needed, building plans, floor plans, electrical schematics, mechanical drawings, technical drawings, etc., in order to move a job forward and to stay on-time.
3D Modeling for Seismic Bracing 3D modeling is used in computer graphics to represent, in our industry, commercial buildings and/or surfaces. We help to create and/or correct 3D modeling of buildings we are involved with seismic MEP jobs.

· Seismic Bracing Experts

· Seismic Bracing, Seismic Bracing Products Selection Services for all Non-Structural Building Utility

· Seismic Bracing, Seismic Design Experts

· Seismic Structural Engineering Company | Seismic Piping Engineering Company

· Seismic bracing company for all structural & MEP Seismic Design

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LITTLE P.ENG. Engineering Consultant

Seismic bracing company for all structural & MEP Seismic Design

Looking for a seismic bracing company you can trust? Look no further than our Seismic Bracing Experts! We have years of experience in the industry, and we know how to provide our clients with the best possible service. Seismic bracing is essential for businesses in earthquake-prone areas, and it’s important to make sure that your structure is properly braced.

Contact us today to learn more about our seismic bracing services. We would be happy to answer any of your questions.

At Little P.Eng. for Engineering Services, our specialty is seismic bracing design and structural frame design for building services. We also specialize in providing prefabrication solution and seismic evaluation & retrofit of existing building. We offer engineered solution so that your project comply with standards with minimum cost in terms of material and labor.

Seismic Bracing Design for non-structural components

With years of experience in seismic design both in Canada and United States, our engineering team has the capabilities and expertise to provide cost effective solutions that can save you time and hassle. We offer seismic restraint design in accordance with National Building Code of Canada, International Building Code, California Building Code, HCAI AKA OSHPD for MEP services such as mechanical, electrical, plumbing, fire and medical gas. We can provide seismic design based on your preferred products and we take care of engineering, code compliance, design project management, drafting, certification and bill of material for your ease of mind.

Structural Frame Design for building services

whether you need prefabrication solution, or you want to the check capacity of a specific framework or design/certify supports for non-structural components (such as pipe racks) we are here to help. We ensure code compliance with Canada and United States codes such as CISC, AISC, ACI, CSA A23.3, ASCE and provide engineering calculation, workshop drawings and certification All Documents will be signed off by charted engineers in structural engineering for your ease of mind.

Seismic evaluation & retrofit of existing buildings

Seismic retrofitting is the modification of existing structures to make them more resistant to seismic activity. To have a better understanding of seismic vulnerability of structures, seismic evaluation can demonstrate the capacity of structure and can compare to demand of earthquake on the local area. The technical guidelines for seismic assessment, retrofit and rehabilitation have been published in Canada, United States and around the world. The retrofit techniques outlined in Little P.Eng. for Engineering Services are applicable for timber, masonry, steel and concrete structures. Our practice of seismic retrofitting is predominantly concerned with structural improvements to reduce the seismic hazard of using the structures, it is similarly essential to reduce the hazards and losses from non-structural elements such as mechanical, electrical, plumbing, fire and medical gas components.

· Seismic Bracing Experts

· Seismic Bracing, Seismic Bracing Products Selection Services for all Non-Structural Building Utility

· Seismic Bracing, Seismic Design Experts

· Seismic Structural Engineering Company | Seismic Piping Engineering Company

· Seismic bracing company for all structural & MEP Seismic Design

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Canadian Pipe Stress Analysis Services & Structural Pipe Supports Design

Canadian Pipe Stress Analysis Services & Structural Pipe Supports Design be Meena Rezkallah, P.Eng.

Pipe Flexibility Analysis / Pipe Stress Analysis Services is a critical component in any piping design. It is mandatory that the critical piping which are operating under high pressure or high temperature services need to be analyzed for flexibility , expansion and load sustaining capabilities. Apart from process and power piping, District cooling systems which employ pre-insulated pipes and piping inside the energy transfer stations need to be analyzed for flexibility and expansion as per API, ASME B31.3, B31.1, B31.8, B31.4, CSA Z662. Meena Development LTD. offers comprehensive service which covers all aspects of Pipe Stress analysis in both industries.

Due to the extensive calculations required, the stress analysis will be carried out with the assistance of computer simulation and modeling software such as CARSAE II.

The stress analysis provides useful design information including the location of any high stress concentrations and bends within the network it also highlights areas requiring attention by way of redesign and or adding additional anchors or hangers to eliminate high stresses in the piping system.

Pipe Stress Analysis Services for Onshore and off shore Process and Power Piping :

Advising on pipeline routing and elevation profile
Static load and stress calculations of above ground and underground piping systems
Wind load calculation
FRP & GRP pipe stress analysis
Offshore piping stress analysis
Fatigue analysis and cumulative usage report
Dynamic analysis and harmonic forces and displacements of piping systems
Mode shapes and natural frequency calculations
Shock spectrum analysis and independent support motion (earthquake)
Force spectrum analysis (liquid hammer, slug flow & relief valve discharge)
Model time history analysis
Calculation of Spring Stiffness
Thrust force of Expansion Bellows
Effects of Thermal Loads, Occasional loads such as Hydrostatic Test, Safety Valve’s Reaction Force, Seismic Loads, Wind Loads
Vibration Analysis Steam Hammer & Water Hammer Sea Wave load spectrum
Safety Valve Reaction Force
Calculation of Displacement of Terminal point movement due to Thermal, Equipment Foundation Settlement ,Pipe Support Movement, Pipe Support Foundation Settlement

The purpose of the stress analysis in piping systems is to identify the behavior of the pipes, piping components under the potential static loading experienced from the start up to operation. In particular, the stress analysis is undertaken to confirm that stresses produced in the piping system as a result of the temperature difference, pressure and dead weight will comply with the governing codes for such static loads. Moreover, the calculated displacements and restraint (anchors and hangers) loads under these static conditions should comply as well with these governing codes.

Pipe Support Engineering Design:

Selection of Pipe Supports
Load calculation for Pipe Support
Structural design of Pipe Supports
Spring Hanger Data Sheets
Thrust Block Sizing
Plates, Inserts & Loading Drawing (input to Civil)

Because Meena Development LTD. offers an array of multidisciplinary services (Pipe Stress Analysis and Structural Engineering), we can provide pipe stress analysis solutions across a multitude of industries. The listing below indicates a few of Meena Development’s most commonly served industries.

Located in Calgary, Alberta; Vancouver, BC; Toronto, Ontario; Buena Park, California; We offer our Piping Engineering Services, Skid Design Services, Pipeline Engineering Services and Structural Engineering Services across Canada. To get our Piping Stress Analysis Services, please contact our Engineering company.

Meena Rezkallah, P.Eng.

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The Canadian Piping Flexibility Stress Analysis Standard

The Canadian Piping Flexibility Stress Analysis Standard. By Meena Rezkallah, P.Eng.

The Canadian Piping Flexibility Stress Analysis Standard for a premium piping engineering & full-service pipe design and pipeline / pipe stress analysis services across Canada & globally. Using CAESAR II and pipe stress calculations as per API, ASME B31.3, B31.1, B31.8, B31.4, CSA Z662.

1.0 SCOPE

2.0 LEGISLATION, REGULATIONS, CODES AND STANDARDS

2.1 API (American Petroleum Institute)

2.2 ASME (American Society of Mechanical Engineers)

2.3 NEMA (National Electrical Manufacturers Association)

2.4 NBC (National Building Code of Canada)

2.5 CSA Group

3.0 PROCEDURE

3.1 Quality Assurance

4.0 DESIGN

4.1 Piping Systems

4.2 External Load Limits on Equipment

4.3 Allowable Forces and Moments on Flanges

4.4 Friction Effects

4.5 Supporting

4.6 Wind Loads

4.7 Seismic Loads

4.8 Vibration

4.9 Existing Lines

1.0 SCOPE

This standard prescribes the basic requirements for the engineering of piping systems and components

for thermal flexibility, support, pressure, vibration, fluid, or gas flow reactions and environmental factors,

including effects on equipment.

2.0 LEGISLATION, REGULATIONS, CODES AND STANDARDS

The publications listed below form part of this standard. Each publication shall be the latest revision and

addendum in effect on the date this standard is issued for construction unless noted otherwise. Except as modified by the requirements specified herein or the details of the drawings, work included in this

standard shall conform to the applicable provisions of these publications.

2.1 API (American Petroleum Institute)

RP 520 Parts I and III; Recommended Practice For The Design and Installation Of Pressure Relieving Systems In Refineries
STD 570 Piping Inspection Code
STD 605 Large Diameter Carbon Steel Flanges
STD 610 Centrifugal Pumps For General Refinery Services
STD 611 General Purpose Steam Turbines for Refinery Services
STD 617 Centrifugal Compressors for General Refinery Services
STD 618 Reciprocating Compressors for General Refinery Services
STD 650 Welded Steel Tanks for Oil Storage
STD 661 Air-Cooled Heat Exchangers for General Refinery Services

2.2 ASME (American Society of Mechanical Engineers)

2.3 NEMA (National Electrical Manufacturers Association)

SM23 Part 8

2.4 NBC (National Building Code of Canada)

2.5 CSA Group

CSA Z662 (Oil and gas pipeline systems)

3.0 PROCEDURE

3.1 Quality Assurance

3.1.1 The practices outlined herein establish the minimum requirements to which the Piping Stress Analyst shall adhere in the performance of quality assurance activities to ensure adequate engineering review of piping systems. Pipe flexibility and stress analysis shall conform to the governing piping code. The pipe line list for the project shall be the controlling document establishing individual line parameters, with the piping drawings defining line configurations.

3.1.2 Calculations shall be retained by the Engineering Contractor or Engineering Consultant for a period of 15 years.

3.1.3 Formal computer analysis shall be performed on the following piping systems:

• Process lines to and from steam generators.

• 2 inches and larger diameter process lines to and from pumps, compressors, turbo-expanders, and blowers.

• Lines with design temperatures over 260°C.

• Piping systems that are selected by the Lead Piping Stress Engineer.

• Steam lines to and from turbines.

3.1.4 As a minimum, engineering analysis by visual inspection and short-cut manual calculations shall be performed on the following systems:

• 16 inches and larger diameter lines.

• Lines to vessels that cannot be disconnected for purging or steam out.

• 3 inches and larger diameter lines at design temperature over 150°C.

• Piping systems selected by the Lead Piping Stress Engineer, which do not require formal computer analysis.

• Relief systems, whether closed or relieving to atmosphere, with considerations for attached or detached discharge pipes.

• Vacuum lines.

• Nonmetallic piping.

• Lines subject to excessive settlement.

3.1.5 Special consideration shall be given to piping systems in the following categories:

• 3 inches and larger diameter lines subject to greater than 25 mm differential settlement of equipment, or supports.

• Lines designated as “Category M,” according to ASME B31.3, shall be so identified in the line list.

• Lines subject to mixed-phase flow (liquid and vapor), and lines identified as vibrating service on the flow diagrams.

• Lines subject to external pressure by reason of vacuum or jacketing.

• Piping connected to reaction sensitive equipment.

3.1.6 Lines to be considered for analysis shall be so marked on the line list.

4.0 DESIGN

4.1 Piping Systems

4.1.1 Piping flexibility shall be obtained through pipe routing or expansion loops. Expansion loops, when installed in a horizontal plane, shall be offset vertically to clear adjacent piping whenever possible. Expansion Joints / Flexible connectors shall be used only when it is not feasible to provide flexibility by other means. Expansion joints / flexible connectors shall be marked on the P&IDs and approved by the project Owner.

4.1.2 The flexibility analysis shall consider the most severe operating temperature condition sustained during startup, normal operation, shutdown, or regeneration. The analysis shall be performed for the maximum temperature differential. The effect of minimum installation and solar temperatures shall be considered in determining the maximum temperature differential.

Note: Hydrocarbon lines within units, areas, and unit pipeways shall be considered subject to steam purge. Interconnecting pipeway lines shall not be considered subject to steam purge. Lines subject to steam purge shall be designed for the steam temperatures or the design temperatures of the line, whichever is higher. Consult the process engineer at the beginning of the job for the correct temperatures.

4.1.3 Lines to purged vessels that cannot be disconnected during purging shall be designed with sufficient flexibility to accommodate the thermal displacement of the vessel.

4.1.4 The mean installation temperature shall be assumed as -10°C for above ground and +10° for underground.

4.1.5 The metal temperature from the effect of solar radiation shall be assumed as 65°C for pipe stress analysis purposes.

4.1.6 If the line is a vapor line, hydrotest weight shall be considered in the analysis.

4.2 External Load Limits on Equipment

4.2.1 Rotating Equipment

Upset/design temperatures are considered transient. For allowable loads the normal operating temperature and the maximum temperature differential shall be used to check the stress in the system.

4.2.2 Vertical In-Line Pumps

4.2.2.1 Piping to small vertical in-line pumps (20 horsepower or less) shall be supported immediately adjacent to suction and discharge flanges by means of conventional pipe supports. Piping loads shall be determined with the pump considered as a rigid but unanchored segment of the piping system.

4.2.2.2 Piping to larger vertical pumps furnished with casing footmounts shall be supported on suitable foundations.

4.2.2.3 The allowable force and moment limitations at pump nozzles shall be per API 610.

4.2.3 Centrifugal Pumps

For pumps that are single-stage, centerline mounted, 2-point support, the allowable

forces and moments published in API Standard 610 shall be used, unless higher loads

are permitted by the Supplier.

For pumps that are multistage, centerline mounted, or barrel type horizontal cases with 4-point

supports, force and moment limitations shall be per API 610, unless higher loads

are permitted by the Supplier.

4.2.4 Centrifugal Compressors

The maximum allowable forces and moments that may be applied to compressor flanges

by the piping shall be per API Standard 617 Section 2.5, unless higher loads are

permitted by the Supplier.

4.2.5 Reciprocating Equipment

Allowable forces and moments shall be as permitted by the Vendor and agreed by the

Engineering Contractor.

4.2.6 Heat Exchangers (Shell and Tube)

Allowable external forces and moments shall be limited to those that produce a limiting

stress as set by ASME B31.3, for the exchanger nozzle/shell material recognizing stress

intensification factors as determined by the applicable code.

4.2.7 Air Cooled Heat Exchangers

The maximum allowable forces and moments that may be applied to air cooler process

nozzle flanges shall be per API Standard 661, unless higher loads are permitted by the

Supplier.

4.2.8 Pressure Vessels and Miscellaneous

Allowable loads shall be calculated in accordance with criteria given by the API

Recommended Practices, API Standards, or ASME sponsored codes that apply to the

specific equipment or system, unless higher loads are permitted by the Supplier.

4.2.9 Fiberglass Vessels / Glass Lined Vessels

There shall be loads developed on these vessel nozzles. Allowable forces and moments

on nozzles shall be calculated in accordance with standard pipe stress analysis methods.

Allowable loads cannot be zero and shall be as agreed to by the Vessel Supplier.

4.3 Allowable Forces and Moments on Flanges

To avoid leakage in flanges, bending moments and forces on flanges shall be limited by the formulas listed in the ASME Boiler and Pressure Vessel Codes, Section VIII.

4.4 Friction Effects

4.4.1 The effect of frictional resistance to thermal movement of the pipe shall be included in the anchor design of piping systems. Assume a coefficient of friction of 0.3 for steel-to-steel contact, 0.1 for teflon to stainless steel contact surfaces and 0.4 for steel to concrete.

4.4.2 Frictionless unrestrained movement of the piping system shall be assumed only when the entire system is supported by means of rod or spring hangers.

4.4.3 Friction shall be considered a short-term transient load. Allowable load limits on equipment may be increased by a factor of 1.5 when considering normal loading plus friction loads. Supports immediately adjacent to equipment nozzles shall be assumed frictionless.

4.5 Supporting

4.5.1 Lines shall be supported in accordance with the limitations set by the applicable codes

listed herein. Deflection between supports shall be limited to 25 mm or less if accumulation of small quantities of liquids is not acceptable.

4.5.2 NPS 20 and larger carbon steel lines and thin-wall lines (D/T ≥ 100) shall be analyzed for crushing loads at support points, and shall be reinforced as necessary.

4.5.3 Systems including tanks / vessels shall be analyzed. These tanks / vessels shall not have springs directly under equipment lugs without the approval of Lead Piping Stress

Engineer. Flexible connectors may also be considered with the approval of Lead Piping Stress Engineer and the project Owner.

4.6 Wind Loads

Design wind pressure and height zones shall be according to NBC.

4.7 Seismic Loads

Seismic loads shall be considered for piping design according to NBC or other local building codes, as required by the project.

4.8 Vibration

Dampeners, restraints, or both shall be provided for lines subject to mixed-phase flow, as required.

4.9 Existing Lines

In verifying stress levels of existing lines due consideration shall be given to requirements of API 570 ‘Piping Inspection Code’. Connections to existing lines or changes in temperatures and pressures of existing lines shall be

analyzed as follows:

4.9.1 Ultrasonic measurements shall be taken for thickness at critical points on all subject lines. This thickness shall be assumed to prevail throughout these lines.

4.9.2 Calculations shall be performed to determine the integrity of pipe wall thickness for the new design conditions or continued operation under original design conditions.

4.9.3 Field sketches shall be drawn of the entire as-built systems for existing lines, subject to a change in operating or design temperature of more than plus or minus 15°C.

4.9.4 Field sketches shall be drawn of as-built systems from new connection points, both upstream and downstream of the connection, to the nearest anchor point or logical discontinuity when anchors are not available.

4.9.5 Type of flexibility analysis required shall be determined by the Engineering Contractor and agreed to by the project Owner.

Read Also: The Canadian Pipe Stress Analysis Design Manual for Owners, Engineers and Contractors

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Engineering Consultant Services Calgary, AB

Engineering Consultant Services Edmonton, AB

Engineering Consultant Services Fort McMurray, AB

Engineering Consultant Toronto

Engineering Consultant Services Toronto, ON

Engineering Consultant Services Vancouver, BC

Engineering Consultant Services Saskatchewan

Engineering Consultant Services Houston, Texas

Engineering Consultant Services Middle East

Engineering Consultant Ontario

Engineering Consultant Services Torrance, California

Engineering Consultant Services Buena Park, California

Meena Rezkallah, P.Eng.

Pipe Stress Analysis of Piping Systems Using CAESAR II

Pipe Stress Analysis of Piping Systems Using CAESAR II – Alberta; British Columbia; Saskatchewan; Ontario. By Meena Rezkallah, P.Eng. piping stress engineer

Meena Development LTD. provides full-services and specialized pipe stress analysis using CAESAR II for piping and pipelines across Canada & globally as per per API, ASME B31.3, B31.1, B31.8, B31.4, CSA Z662 codes for all industries. Our Canadian professional Engineers are ready to authenticate, validate piping packages.

Pipe Stress Analysis Services Using CAESAR II

Linear and non-liner static analysis
Dynamic analysis including earthquake and hydraulic shock, and oscillation analysis
Analysis of underground piping systems

We provide stress analysis for process piping, power piping and pipelines on the ground and underground.

For pipe stress analysis and calculation, we use CAESAR II or according to the client´s individual needs. It offers opportunity of a multitude of analysis types – static, dynamic (first-order, second-order theory for linear or non-linear boundary conditions).

Complex analysis consists of:

strength analysis of pipelines
calculation of allowable stress of piping systems and associated structures
nozzle load of associated devices and apparatuses
pipeline dilatation and piping movements
optimization for safe operation and cost minimization
concept of flexible and uniform bearings, compensators, dynamic brakes and silencers if necessary for systems
fatigue analysis
flange joints analysis
optimization of piping systems
preparation of isometrics and program outputs
calculation report (also as provable documentation)

We provide analysis for following operational states:

dead load and overpressure including pressure test and assembly state
restricted dilatation loads
wind loads
earthquake loads
force excitation loads
settlement loads
impact loads
unsteady flow of fluid
emergency states – piping system whip etc.
water hammer and relief Valve force

The documentation is also provable for authorization by CAESAR II report capabilities

We are aware of our responsibility thus we strive to find the most suitable solution for our clients which will not only guarantee safe system operation, but also significantly lower costs for supply of piping systems greatly exceeding costs for the analysis itself.

Pipe Stress Analysis services of piping systems – codes and standards:

ASME B31.1, ASME B31.3, ASME B31.4, ASME B31.5, ASME B31.8
ASME Class 1, ASME Class 2, ASME Class 3
EN 13480 – 3
EN 1591
AGFW
KTA 3211.2, KTA 3201.2
BS 7159
KRV
WRC 537 (107)
WRC 297
CSA Z662
CSA Z245.1
API RP 1102

Design and Construction of Piping Supports System

Design and optimization of the concept of piping supports system
Dimensioning of piping supports system
Design of piping supports system
Detailed design in the CAD programs

Located in Calgary Alberta, We offer our Piping Engineering Services, Skid Design Services, Pipeline Engineering Services and Structural Engineering Services across Canada. To get our Piping Stress Analysis Services, please contact our Engineering company.

Our professional piping stress engineers have a bachelor’s and Masters degree in mechanical / structural engineering and province license (P.Eng.) in Alberta, Saskatchewan, British Columbia and Ontario. We review, validate, certify and stamp piping and structural packages. Also check Industries We Serve.

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Engineering Consultant Services Calgary, AB

Engineering Consultant Services Edmonton, AB

Engineering Consultant Services Fort McMurray, AB

Engineering Consultant Toronto

Engineering Consultant Services Toronto, ON

Engineering Consultant Services Vancouver, BC

Engineering Consultant Services Saskatchewan

Engineering Consultant Services Houston, Texas

Engineering Consultant Services Middle East

Engineering Consultant Ontario

Engineering Consultant Services Torrance, California

Engineering Consultant Services Buena Park, California

Meena Rezkallah, P.Eng.

CAESAR II Pipe Stress Analysis Services by Expert Canadian Professional Pipeline & Piping Engineers

Meena Rezkallah, P.Eng.

CAESAR II Pipe Stress Analysis Services by Expert Canadian Professional Pipeline & Piping Engineers

We provide premium piping engineering & full-service pipe design and pipeline / pipe stress analysis services, from initial concept through final construction. We serve all types of industries across Canada & globally. Using CAESAR II and pipe stress calculations as per API, ASME B31.3, B31.1, B31.8, B31.4, CSA Z662.

Piping Systems work under different temperature and pressure conditions which place lot of stress on its various components. Systems must be thoroughly analyzed using latest Pipe Stress Analysis Software and supported in such a manner that no detrimental stresses occurs in the system, which can cause system failure. Various software used for pipe stress analysis are CAESAR II and AutoPipe.

Pipe Stress Analysis Services in a typical engineering project is carried out using software like CAESAR II. The procedure adopted normally is as follows :

Based on stress design criteria, piping stress engineer prepares stress critical lines list.
Piping Stress Engineer gives it to layout engineer.
Layout engineer makes sure that lines are routed in 3D Model assuring enough supporting structure is available for the line.
Layout engineer marks logical supports on line in 3d Model at all locations where it is possible to provide a support.
Layout engineer then extracts isometrics, check it routing point of view with all components placed as per P&IDs.
He then issues isometrics to piping stress engineer.
Layout engineer keeps track of isometrics issued to stress in a copy of stress critical lines list by adding extra columns to track stress progress.
Piping stress engineer marks node numbers on stress isometrics.
Piping stress Engineer then inputs the line data in CAESAR using classic piping input spreadsheet of CAESAR II.
Piping Stress Engineer adds preliminary supports based on judgement and experience.
Piping Stress Engineer then runs the static analysis.
Piping Stress Engineer then checks the stress reports for :
Excessive displacements.
Nodes exceeding allowable stresses.
Excessive loads in equipment nozzles.
Excessive loads on dynamic equipment like pumps, compressors, turbines etc.
If Piping stress engineer finds everything ok, he finalizes supports and give back a copy of stress isometrics with support markup to layout engineer to incorporate those supports in 3d Model.