An engine stand is a tool used to repair large engines by holding them suspended in air. Engine stands allow access to all surfaces and protect fragile components from being crushed. They are mounted on casters so engines can be moved around the shop. Large engines require engine stands because they cannot be easily laid down due to their size and weight. Engine stands are commonly used with engine cranes to remove and install engines and perform repairs. Rolls Royce engine stands have unique features like adjustable angles of access and sturdy construction to stably hold engines during maintenance. They supply engine tooling and stands globally to support their aircraft engines.
An engine stand is a tool used to hold large engines for repair. It supports the engine from its mounts to allow access to all surfaces. Engine stands are mounted on casters so the engine can be moved around the shop. They are often used with engine cranes to install or remove engines. The document discusses the unique design of Rolls Royce engine stands, including their sturdy construction and ability to rotate the engine. It also discusses different types of aircraft engine stands designed for portability, such as those that allow engines to be transported in split configurations. Research on engine performance testing and developments in two-stroke engines is reviewed.
The document provides an overview of engine stands and their uses. It discusses that engine stands are tools used to repair large gasoline or diesel engines by holding the engine in midair for access. Engine stands allow fragile engine components to be accessed without being crushed. They are mounted on casters so engines can be moved around workshops. The document then discusses some of the fundamental requirements and elements needed in an engine stand design, including securing different sized engines and providing an adjustable, extensible support. It notes engine stands are important tools for automotive maintenance and engine repair. However, commercial engine stands can be expensive, adding costs to engine maintenance. The objectives of the study are then presented to discuss the mechanism, functions and activities of an engine stand
An engine stand is a tool used to hold large engines in midair during repair work. It allows mechanics easy access to all sides of the engine. While small engines can be laid on a table, large engines require support from their engine mounts. Engine stands are mounted on casters so the engine can be moved around the shop. They are often used with engine cranes to install or remove engines. The document then describes a budget-friendly way to create a simple engine stand using sawhorses and wood boards to support the engine at its mount points, allowing it to be rotated and stored out of the way when not in use.
DLW is an integrated plant and its manufacturing facilities are flexible in nature. These can be utilized for manufacture of different design of locomotives of various gauges suiting customer requirements and other products.
Summer training repoart on dlw ,varanasiARJUN MAURYA
The Buddha Institute of Technology document summarizes information about Diesel Locomotive Works (DLW) in India. DLW was established in 1956 to manufacture diesel-electric locomotives for Indian Railways. It produces locomotives with power ratings ranging from 2600 to 5500 horsepower. DLW's production facilities include block, engine, and locomotive divisions that perform operations like machining, assembly, and testing. DLW has supplied locomotives to other countries and produces about 340 locomotives annually.
The document provides information about Diesel Locomotive Workshop (DLW) in India. It mentions that DLW was established in 1961 in collaboration with ALCO, USA to manufacture diesel locomotives indigenously. DLW has since produced over 4,700 locomotives and exported some locomotives to other countries. DLW obtained ISO certification in 1997 and manufactures state-of-the-art, microprocessor controlled locomotives with technology transferred from General Motors, USA. It has an annual production capacity of 125 locomotives.
This document provides information about Prashant Sharma's vocational training report submitted for his BTech degree in Mechanical Engineering. It details his training at the Diesel Locomotive Works (DLW) in Varanasi, India. DLW produces diesel-electric locomotives and generators. The report describes DLW's facilities and production shops, including machine shops that machine locomotive components like camshafts, gears, cylinders, and connecting rods using various types of machines like lathes, mills, and grinders. It outlines safety procedures for operating machine tools and gives an overview of the light machine shop where small engine parts are machined.
An engine stand is a tool used to hold large engines for repair. It supports the engine from its mounts to allow access to all surfaces. Engine stands are mounted on casters so the engine can be moved around the shop. They are often used with engine cranes to install or remove engines. The document discusses the unique design of Rolls Royce engine stands, including their sturdy construction and ability to rotate the engine. It also discusses different types of aircraft engine stands designed for portability, such as those that allow engines to be transported in split configurations. Research on engine performance testing and developments in two-stroke engines is reviewed.
The document provides an overview of engine stands and their uses. It discusses that engine stands are tools used to repair large gasoline or diesel engines by holding the engine in midair for access. Engine stands allow fragile engine components to be accessed without being crushed. They are mounted on casters so engines can be moved around workshops. The document then discusses some of the fundamental requirements and elements needed in an engine stand design, including securing different sized engines and providing an adjustable, extensible support. It notes engine stands are important tools for automotive maintenance and engine repair. However, commercial engine stands can be expensive, adding costs to engine maintenance. The objectives of the study are then presented to discuss the mechanism, functions and activities of an engine stand
An engine stand is a tool used to hold large engines in midair during repair work. It allows mechanics easy access to all sides of the engine. While small engines can be laid on a table, large engines require support from their engine mounts. Engine stands are mounted on casters so the engine can be moved around the shop. They are often used with engine cranes to install or remove engines. The document then describes a budget-friendly way to create a simple engine stand using sawhorses and wood boards to support the engine at its mount points, allowing it to be rotated and stored out of the way when not in use.
DLW is an integrated plant and its manufacturing facilities are flexible in nature. These can be utilized for manufacture of different design of locomotives of various gauges suiting customer requirements and other products.
Summer training repoart on dlw ,varanasiARJUN MAURYA
The Buddha Institute of Technology document summarizes information about Diesel Locomotive Works (DLW) in India. DLW was established in 1956 to manufacture diesel-electric locomotives for Indian Railways. It produces locomotives with power ratings ranging from 2600 to 5500 horsepower. DLW's production facilities include block, engine, and locomotive divisions that perform operations like machining, assembly, and testing. DLW has supplied locomotives to other countries and produces about 340 locomotives annually.
The document provides information about Diesel Locomotive Workshop (DLW) in India. It mentions that DLW was established in 1961 in collaboration with ALCO, USA to manufacture diesel locomotives indigenously. DLW has since produced over 4,700 locomotives and exported some locomotives to other countries. DLW obtained ISO certification in 1997 and manufactures state-of-the-art, microprocessor controlled locomotives with technology transferred from General Motors, USA. It has an annual production capacity of 125 locomotives.
This document provides information about Prashant Sharma's vocational training report submitted for his BTech degree in Mechanical Engineering. It details his training at the Diesel Locomotive Works (DLW) in Varanasi, India. DLW produces diesel-electric locomotives and generators. The report describes DLW's facilities and production shops, including machine shops that machine locomotive components like camshafts, gears, cylinders, and connecting rods using various types of machines like lathes, mills, and grinders. It outlines safety procedures for operating machine tools and gives an overview of the light machine shop where small engine parts are machined.
The Diesel Locomotive Works (DLW) in Varanasi, India, is a production unit owned by Indian Railways, that manufactures diesel-electric locomotives and its spare parts. It is the largest diesel-electric locomotive manufacturer in India.
Locally it is called as D L W.
The document provides information about Diesel Locomotive Works (DLW) in Varanasi, India. Some key points:
- DLW is a production unit owned by Indian Railways that manufactures diesel-electric locomotives. It was established in 1961 in collaboration with an American company.
- DLW's annual production capacity is 200 locomotives. It produces various locomotive models for freight, passenger and mixed-use applications with power ratings ranging from 1300-5500 horsepower.
- The factory has different production shops for activities like welding, machining, engine assembly, and locomotive assembly. Locomotives pass through various stages from raw material to the final testing and painting processes.
-
The internship involved hands-on training and observation at the Jaguar Land Rover Service Station in Chennai over the course of a month. The document discusses the operational procedures of the service station, including receiving vehicles, inspection, repair work, and returning vehicles to customers. It also describes common vehicle issues like those with the air conditioning system, and repair processes like refrigerant recharging. The internship provided valuable practical learning experience about vehicle functioning and repair work.
Diesel locomotives use a diesel engine to power an alternator that generates electricity to power traction motors on the axles, replacing overhead electric wires. Key components include the diesel engine, alternator, rectifiers or inverters to convert AC to DC for older DC traction motors or back to AC for newer AC traction motors, electronic controls, batteries, a cab, traction motors on each axle via reduction gears, a fuel tank, air compressor, drive shaft, radiator and fans. Diesel locomotives can operate on any route without needing electrification but carry their own power source of a diesel engine and generator.
The document provides an overview of Diesel Locomotive Works (DLW) in Varanasi, India, which produces diesel-electric locomotives. DLW was established in 1961 through collaboration with American Locomotive Company and has since produced locomotives using both ALCO and Electro-Motive Division technologies. The document details the various types of locomotives produced at DLW, including their specifications and components.
The document provides information about Deepak Singh's summer training at Diesel Locomotive Works (DLW) in Varanasi, India. It discusses:
1) DLW was established in 1956 to manufacture diesel-electric locomotives for Indian Railways. It produces 250 locomotives annually and has supplied locomotives internationally.
2) Deepak Singh was allotted to several workshops including Rotor shop, Welding shop, and Light Machine shop. He learned about welding processes, CNC machines, and turbocharger assembly in these workshops.
3) The Rotor shop manufactures components of the turbocharger which is critical to providing fresh air intake and improving the power and efficiency of locomotive engines.
This document provides information about Diesel Locomotive Works (DLW) in Varanasi, India. It discusses that DLW is a production unit under the Ministry of Railways that began producing locomotives in 1964. DLW exports locomotives to countries like Sri Lanka, Malaysia, Bangladesh, and Tanzania. It is the only manufacturer of diesel-electric locomotives that uses both ALCO and General Motors technology. The document then provides details about diesel fuel, locomotives, locomotive classification codes, and the various production shops at DLW including heavy weld shop, engine erection shop, heat treatment shop, and others.
The document discusses the vehicle body construction. It begins by introducing the objectives of the session which are to understand how vehicle parts form the body and give an aesthetic view to consumers. It then covers various topics related to vehicle body design including the importance of design, types of bodies, body construction components, body materials, and aerodynamics. The document focuses on the components that make up the vehicle body, how the body is constructed, and the purpose of key parts like doors, hood, seats, and other interior and exterior parts.
Diesel Locomotive Works (DLW) is an Indian Railways production unit that manufactures diesel-electric locomotives and generators. It was established in 1961 through a collaboration with American Locomotive Company. DLW has since signed additional technology transfer agreements, including with General Motors, allowing it to produce locomotives using both ALCO and GM technologies. DLW uses shielded metal arc welding and submerged arc welding in production. Shielded metal arc welding uses a consumable electrode to create an electric arc between the electrode and workpiece, while submerged arc welding submerges the arc under a blanket of flux to improve quality and safety. DLW continues to expand its capabilities through research and development.
This document summarizes a student's two-week vocational training at the Diesel Shed in Ratlam, India. It provides background on the Diesel Shed, including its establishment in 1967 and current holdings of 126 diesel locomotives. It then describes various locomotive systems the student learned about during the training, including maintenance, starting systems, fuel and air systems, braking, lubrication, safety devices, and locomotive manufacturing. Pictures and a certificate from the training are also included.
Dlw summer trainning project electrical branch by shubhang pandeyshubhangpandey5
DLW was founded in 1956 in Varanasi, India as a production unit of Indian Railways. It manufactures diesel-electric locomotives in collaboration with ALCO and General Motors. DLW's facilities include a Main Receiving Sub Station that receives 11kV power and distributes it via a ring main system. Other facilities include a Central Transport Shop, Maintenance Service Shop for repairs, and Loco Testing Shop. DLW produces locomotives ranging from 2600-12,000 HP and supplies them to Indian Railways as well as other countries.
The document discusses machine design and provides examples. It defines machine design as the process of selecting materials, shapes, sizes, and arrangements of mechanical elements so a machine can perform its intended task. As an example, it describes the process of designing a belt drive, which involves selecting elements like pulleys and belts, their shapes and materials, and their sizes. It also mentions classification and considerations in machine design processes, and provides a simple example of designing an L-shaped bracket.
DLW SUMMER TRAINING REPORT FOR ECE BRANCH SUBHAM SINGH
this report is very usful for student who are doing in a DLW summer training and also learns a lot of thing from this report .I have learnt a lot of things from DLW training and i feel lucky to this part of summer training in a DLW ,varanasi .And last things,I suggest to all of u ,please dont do training for attendance purpose ,honestly u should learn a lot of things which is better for ur future.DLW is an integrated plant and its manufacturing facilities are flexible in nature.
This document provides an overview of the Technician Level 2 Module 5 training program which focuses on brake and suspension systems for LCV vehicles. The objectives are to understand S-cam air brake systems, perform inspections and overhauls of brake components, and understand hydraulic brake and suspension systems. The agenda covers S-cam brakes, hydraulic brakes, park brakes, and suspension systems.
The document provides details about Vipin Kumar's training at Diesel Locomotive Works (DLW) in Varanasi, Uttar Pradesh. It includes:
1) An introduction to DLW, which was established in 1956 and manufactures diesel-electric locomotives for Indian Railways. It produces locomotives of various types including WDM, WDP, WDG, and WDS.
2) Descriptions of sections within DLW such as welding, machining, painting, and assembly shops where locomotive production takes place.
3) Acknowledgements from the author thanking DLW and his college for enabling the training opportunity.
4) Tables of contents and preface describing
The document discusses the key internal components of a car engine. It identifies 15 main parts, including the cylinder block, cylinder head, crankcase, oil pan, manifolds, gaskets, cylinder liner, piston, connecting rod, crankshaft, camshaft and flywheel. It provides details on the function and construction of important parts like the cylinder block, cylinder head, crankcase, oil pan and manifolds. The document aims to familiarize readers with the basic parts that make up the engine.
The document provides information about internal combustion engines, including:
1) It discusses the history and development of internal combustion engines from 1860 to the present, including key inventors and innovations.
2) It covers the classification and components of internal combustion engines, explaining features like operating cycles, cylinder configurations, valve locations, and fuels.
3) It describes the operation of 4-stroke and 2-stroke engine cycles, and includes diagrams and animations to illustrate the combustion process.
DLW, Varanasi Summer Training Report- CIVIL BranchRahul Gupta
This document provides an introduction and overview of the Diesel Locomotive Works (DLW) in Varanasi, India. Some key points:
- DLW was established in 1961 in collaboration with American Locomotive Company to manufacture diesel-electric locomotives. It is now the only manufacturer of locomotives with both ALCO and General Motors technologies.
- DLW produces over 150 locomotives annually as well as components, spare parts, and diesel generator sets. Its products include various models of freight and passenger locomotives.
- In addition to manufacturing, DLW also conducts research and development, provides technical training, and maintains facilities that support its operations such as material procurement and workforce management.
This document discusses the design evaluation of a flywheel used in a petrol engine. It begins with introductions to internal combustion engines, flywheels, ProEngineer modeling software, and ANSYS finite element analysis software. It then describes the design process which included calculating flywheel dimensions, creating a 2D drawing in ProEngineer, conducting structural, modal, and fatigue analysis in ANSYS on models of the flywheel constructed from cast iron and aluminum alloy A360 materials. The analyses showed both materials would withstand operating stresses but aluminum alloy had lower stresses. Fatigue analysis also evaluated stress at nodes over the flywheel's lifespan. The flywheel was determined to be a valid design, with aluminum alloy A360 the better material.
IRJET- Design and development of Hydraulic Lift for fastening of a SPM (S...IRJET Journal
This document summarizes the design and development of a hydraulic lift system for fastening a special purpose machine (SPM) subsystem. It includes a conceptual block diagram of the system consisting of 4 hydraulic castors located at the corners of a cart to lift it. Other main components are flow dividers to evenly distribute hydraulic fluid to the castors and an oil tank and foot pump. The objectives are to design, develop, manufacture and test a hydraulically operated castor lifting mechanism. A literature review covers previous research on similar hydraulic lifts and flow dividers. Calculations are shown to determine the piston diameter needed based on the load weight of 800-900kg.
The Diesel Locomotive Works (DLW) in Varanasi, India, is a production unit owned by Indian Railways, that manufactures diesel-electric locomotives and its spare parts. It is the largest diesel-electric locomotive manufacturer in India.
Locally it is called as D L W.
The document provides information about Diesel Locomotive Works (DLW) in Varanasi, India. Some key points:
- DLW is a production unit owned by Indian Railways that manufactures diesel-electric locomotives. It was established in 1961 in collaboration with an American company.
- DLW's annual production capacity is 200 locomotives. It produces various locomotive models for freight, passenger and mixed-use applications with power ratings ranging from 1300-5500 horsepower.
- The factory has different production shops for activities like welding, machining, engine assembly, and locomotive assembly. Locomotives pass through various stages from raw material to the final testing and painting processes.
-
The internship involved hands-on training and observation at the Jaguar Land Rover Service Station in Chennai over the course of a month. The document discusses the operational procedures of the service station, including receiving vehicles, inspection, repair work, and returning vehicles to customers. It also describes common vehicle issues like those with the air conditioning system, and repair processes like refrigerant recharging. The internship provided valuable practical learning experience about vehicle functioning and repair work.
Diesel locomotives use a diesel engine to power an alternator that generates electricity to power traction motors on the axles, replacing overhead electric wires. Key components include the diesel engine, alternator, rectifiers or inverters to convert AC to DC for older DC traction motors or back to AC for newer AC traction motors, electronic controls, batteries, a cab, traction motors on each axle via reduction gears, a fuel tank, air compressor, drive shaft, radiator and fans. Diesel locomotives can operate on any route without needing electrification but carry their own power source of a diesel engine and generator.
The document provides an overview of Diesel Locomotive Works (DLW) in Varanasi, India, which produces diesel-electric locomotives. DLW was established in 1961 through collaboration with American Locomotive Company and has since produced locomotives using both ALCO and Electro-Motive Division technologies. The document details the various types of locomotives produced at DLW, including their specifications and components.
The document provides information about Deepak Singh's summer training at Diesel Locomotive Works (DLW) in Varanasi, India. It discusses:
1) DLW was established in 1956 to manufacture diesel-electric locomotives for Indian Railways. It produces 250 locomotives annually and has supplied locomotives internationally.
2) Deepak Singh was allotted to several workshops including Rotor shop, Welding shop, and Light Machine shop. He learned about welding processes, CNC machines, and turbocharger assembly in these workshops.
3) The Rotor shop manufactures components of the turbocharger which is critical to providing fresh air intake and improving the power and efficiency of locomotive engines.
This document provides information about Diesel Locomotive Works (DLW) in Varanasi, India. It discusses that DLW is a production unit under the Ministry of Railways that began producing locomotives in 1964. DLW exports locomotives to countries like Sri Lanka, Malaysia, Bangladesh, and Tanzania. It is the only manufacturer of diesel-electric locomotives that uses both ALCO and General Motors technology. The document then provides details about diesel fuel, locomotives, locomotive classification codes, and the various production shops at DLW including heavy weld shop, engine erection shop, heat treatment shop, and others.
The document discusses the vehicle body construction. It begins by introducing the objectives of the session which are to understand how vehicle parts form the body and give an aesthetic view to consumers. It then covers various topics related to vehicle body design including the importance of design, types of bodies, body construction components, body materials, and aerodynamics. The document focuses on the components that make up the vehicle body, how the body is constructed, and the purpose of key parts like doors, hood, seats, and other interior and exterior parts.
Diesel Locomotive Works (DLW) is an Indian Railways production unit that manufactures diesel-electric locomotives and generators. It was established in 1961 through a collaboration with American Locomotive Company. DLW has since signed additional technology transfer agreements, including with General Motors, allowing it to produce locomotives using both ALCO and GM technologies. DLW uses shielded metal arc welding and submerged arc welding in production. Shielded metal arc welding uses a consumable electrode to create an electric arc between the electrode and workpiece, while submerged arc welding submerges the arc under a blanket of flux to improve quality and safety. DLW continues to expand its capabilities through research and development.
This document summarizes a student's two-week vocational training at the Diesel Shed in Ratlam, India. It provides background on the Diesel Shed, including its establishment in 1967 and current holdings of 126 diesel locomotives. It then describes various locomotive systems the student learned about during the training, including maintenance, starting systems, fuel and air systems, braking, lubrication, safety devices, and locomotive manufacturing. Pictures and a certificate from the training are also included.
Dlw summer trainning project electrical branch by shubhang pandeyshubhangpandey5
DLW was founded in 1956 in Varanasi, India as a production unit of Indian Railways. It manufactures diesel-electric locomotives in collaboration with ALCO and General Motors. DLW's facilities include a Main Receiving Sub Station that receives 11kV power and distributes it via a ring main system. Other facilities include a Central Transport Shop, Maintenance Service Shop for repairs, and Loco Testing Shop. DLW produces locomotives ranging from 2600-12,000 HP and supplies them to Indian Railways as well as other countries.
The document discusses machine design and provides examples. It defines machine design as the process of selecting materials, shapes, sizes, and arrangements of mechanical elements so a machine can perform its intended task. As an example, it describes the process of designing a belt drive, which involves selecting elements like pulleys and belts, their shapes and materials, and their sizes. It also mentions classification and considerations in machine design processes, and provides a simple example of designing an L-shaped bracket.
DLW SUMMER TRAINING REPORT FOR ECE BRANCH SUBHAM SINGH
this report is very usful for student who are doing in a DLW summer training and also learns a lot of thing from this report .I have learnt a lot of things from DLW training and i feel lucky to this part of summer training in a DLW ,varanasi .And last things,I suggest to all of u ,please dont do training for attendance purpose ,honestly u should learn a lot of things which is better for ur future.DLW is an integrated plant and its manufacturing facilities are flexible in nature.
This document provides an overview of the Technician Level 2 Module 5 training program which focuses on brake and suspension systems for LCV vehicles. The objectives are to understand S-cam air brake systems, perform inspections and overhauls of brake components, and understand hydraulic brake and suspension systems. The agenda covers S-cam brakes, hydraulic brakes, park brakes, and suspension systems.
The document provides details about Vipin Kumar's training at Diesel Locomotive Works (DLW) in Varanasi, Uttar Pradesh. It includes:
1) An introduction to DLW, which was established in 1956 and manufactures diesel-electric locomotives for Indian Railways. It produces locomotives of various types including WDM, WDP, WDG, and WDS.
2) Descriptions of sections within DLW such as welding, machining, painting, and assembly shops where locomotive production takes place.
3) Acknowledgements from the author thanking DLW and his college for enabling the training opportunity.
4) Tables of contents and preface describing
The document discusses the key internal components of a car engine. It identifies 15 main parts, including the cylinder block, cylinder head, crankcase, oil pan, manifolds, gaskets, cylinder liner, piston, connecting rod, crankshaft, camshaft and flywheel. It provides details on the function and construction of important parts like the cylinder block, cylinder head, crankcase, oil pan and manifolds. The document aims to familiarize readers with the basic parts that make up the engine.
The document provides information about internal combustion engines, including:
1) It discusses the history and development of internal combustion engines from 1860 to the present, including key inventors and innovations.
2) It covers the classification and components of internal combustion engines, explaining features like operating cycles, cylinder configurations, valve locations, and fuels.
3) It describes the operation of 4-stroke and 2-stroke engine cycles, and includes diagrams and animations to illustrate the combustion process.
DLW, Varanasi Summer Training Report- CIVIL BranchRahul Gupta
This document provides an introduction and overview of the Diesel Locomotive Works (DLW) in Varanasi, India. Some key points:
- DLW was established in 1961 in collaboration with American Locomotive Company to manufacture diesel-electric locomotives. It is now the only manufacturer of locomotives with both ALCO and General Motors technologies.
- DLW produces over 150 locomotives annually as well as components, spare parts, and diesel generator sets. Its products include various models of freight and passenger locomotives.
- In addition to manufacturing, DLW also conducts research and development, provides technical training, and maintains facilities that support its operations such as material procurement and workforce management.
This document discusses the design evaluation of a flywheel used in a petrol engine. It begins with introductions to internal combustion engines, flywheels, ProEngineer modeling software, and ANSYS finite element analysis software. It then describes the design process which included calculating flywheel dimensions, creating a 2D drawing in ProEngineer, conducting structural, modal, and fatigue analysis in ANSYS on models of the flywheel constructed from cast iron and aluminum alloy A360 materials. The analyses showed both materials would withstand operating stresses but aluminum alloy had lower stresses. Fatigue analysis also evaluated stress at nodes over the flywheel's lifespan. The flywheel was determined to be a valid design, with aluminum alloy A360 the better material.
IRJET- Design and development of Hydraulic Lift for fastening of a SPM (S...IRJET Journal
This document summarizes the design and development of a hydraulic lift system for fastening a special purpose machine (SPM) subsystem. It includes a conceptual block diagram of the system consisting of 4 hydraulic castors located at the corners of a cart to lift it. Other main components are flow dividers to evenly distribute hydraulic fluid to the castors and an oil tank and foot pump. The objectives are to design, develop, manufacture and test a hydraulically operated castor lifting mechanism. A literature review covers previous research on similar hydraulic lifts and flow dividers. Calculations are shown to determine the piston diameter needed based on the load weight of 800-900kg.
- Spencer Sgrignoli completed a motorsports minor at Old Dominion University focusing on racecar performance, aerodynamics, engines, and mechatronics. He also has experience with Formula SAE and interned at Continental Automotive.
- His senior design project involved designing a racing simulator rig that changed seating positions between GT and Formula styles.
- He has been involved with ODU's Formula SAE team for two years, helping to design and build a open-wheel racecar and make it lighter using composites and 3D printing.
- His internships gave him exposure to engineering in industry, working on quality control and testing of fuel injectors at Continental and marine fuel systems at Syn
Sunny Prakash Gianchandani is seeking a position in rotating equipment with 9 years of experience. He currently works as a Rotating Equipment Engineer for Saudi Aramco. Previously he worked for Reliance Industries for 7 years. His experience includes technical analysis, maintenance, reliability improvement, and condition monitoring of various rotating and static equipment like pumps, compressors, turbines, and more. He has expertise in vibration analysis and managing maintenance programs.
The document summarizes a master's thesis that involved restoring an Otto cycle engine and designing and building a portable engine test bench for teaching purposes. The test bench was built to train students on engine testing fundamentals, including diagnosis, control, data acquisition, and safety. It consists of a restored Otto cycle engine mounted on a hydraulic dynamometer within a portable structure, along with cooling, exhaust, and control systems to allow safe operation. The configuration was tested and fine-tuned, resulting in a fully operational test bench that can be used to demonstrate engine measurements and tuning to students.
The document provides details about cooling towers, including their components, materials, types, and factors affecting performance. It discusses the key components of cooling towers such as frames, casings, fills, basins, drift eliminators, air inlets, louvers, nozzles, and fans. It describes different types of cooling towers including natural draft, mechanical draft, open-circuit vs closed-circuit, and hybrid towers. The document also examines various design factors, fill media, water distribution, and fans that impact cooling tower efficiency. Finally, it provides methods for calculating and improving cooling tower effectiveness.
Ong-Art Sanpinit has over 20 years of experience in project management, operations management, and staff development. He has managed large construction projects in various industries including power plants, oil and gas facilities, and chemical plants. Some of his accomplishments include successfully completing multiple power plant projects on time and under budget, establishing ISO safety and quality certifications, and training staff in project management skills.
The first thing I did was to be a part of the story that the government is a good idea to have a good day and 4 of the total number of people who are 4444 the same time as a result of the most important thing is that I have to go to the hospital and the other is a great way to get the best out of the office and I am not sure if I can
The document is a resume for Ameer Basha M summarizing his education and experience. It includes the following key points:
- Ameer received a postgraduate diploma in process piping design in 2016 and a bachelor's degree in mechanical engineering in 2015.
- His areas of interest and experience include design engineering, product development, quality control, and piping engineering.
- Projects included designing a heat exchanger for a hydraulic press machine and a human-powered vehicle.
- Technical skills include AutoCAD, CREO, programming languages, and Microsoft Office.
- He has participated in internships and industrial visits related to manufacturing processes.
The document discusses the design optimization and analysis of a propeller shaft using finite element analysis. It aims to replace conventional steel drive shafts with alloy materials to reduce weight. The researchers used AISI 8750 low alloy steel and optimized the design in ANSYS to minimize weight while ensuring sufficient performance under loads. Their analysis estimated deflection, stresses, and natural frequencies of both steel and alloy propeller shafts to compare performance and validate the optimized alloy design.
final report of industrial training MEC 460 by mani pathakMani Pathak
This document is a project report for a full semester internship at SWARAJ MAZDA LIMITED, ISUZU developing a piezo-electric hybrid shock absorber. It includes declarations, acknowledgements, tables of contents, prefaces about the company, and chapters describing the objectives, experimental work, comparisons of results, conclusions, and further improvements. The student designed a shock absorber in Pro/ENGINEER and analyzed it using ANSYS for structural and modal analysis with different materials and loads to validate the design and determine best material.
Ismail Shahid Sk is a 2015 graduate with a B. Tech in Mechanical Engineering. He has skills in ANSYS, CREO, AutoCAD/CAM from government training institutes. His projects include generating electricity from industrial waste water and a coolant monitoring system. He also worked on a project to improve fuel efficiency and reduce pollutants in automobiles using hydrogen-oxygen gas. He is seeking a position where he can apply his technical skills and grow professionally while contributing to organizational goals.
IRJET- Modelling, Simulation and Testing of Diesel Engine Water PumpIRJET Journal
This document discusses modeling, simulation, and testing of a diesel engine water pump using computational fluid dynamics (CFD). The objective was to obtain a higher head than existing pumps to increase cooling efficiency in diesel engines. The researchers conducted CFD simulations of modifications to the pump design, including adding a splitter to the outlet and increasing or angling the vanes. The simulations predicted increases in head of up to 7 meters with these modifications. The modified design was then experimentally tested and the results were compared to the CFD simulations to validate the model. The increased efficiency was expected to enable more rapid cooling and faster heat dissipation in diesel engines.
This paper discusses the development of single-diameter wellbore technology using solid expandable tubular systems. It describes:
1) How over 350 commercial installations helped prove the concept and technology.
2) The key benefits of single-diameter wells which reduce costs by conserving resources, saving time, and reducing environmental impact.
3) The multi-functional tool developed which can expand casing in one trip and provides contingencies like releasing connections if needed.
4) A field test in 2004 that successfully deployed and expanded 9-5/8 inch liners to test hydraulic isolation without cement. This demonstrated the viability of the single-diameter well construction method.
This document summarizes a paper presented at Offshore Europe 2005 that discusses realizing single-diameter wellbore technology using solid expandable tubulars. It provides details on:
- The development of expandable technology and its progression to enable single-diameter wells.
- A field test of the technology that successfully deployed and expanded 9-5/8 inch liners in a single trip.
- The multi-functional tool string used, including elements for expansion and contingencies.
- How the technology allows extended reach drilling and can increase reserves while reducing development costs.
Yashwanth H.N. is a mechanical engineer currently working at QuEST Global Pvt Ltd as an engineer in turbine subsystem. He has over 5 years of experience in the aerospace industry modeling engine parts and conducting design optimization. His skills include CAD software such as CATIA and NX, technical report writing, and knowledge of gas turbine engines and design. He holds a Bachelor's degree in Mechanical Engineering and has worked on projects involving compressor and turbine blade design, cooling effectiveness optimization, and compressed air generation systems.
CFD ANALYSIS OF MULTI CYLINDER SI ENGINE USING ANSYSsiva sankar
In present century, spark ignition engines have become a non-separable part of the society, and are used in many sectors of energy. They act as backbone for transportation systems, but, as a bitter truth they behave like a major source of air pollution. There are basically three types of emissions, emerged from a SI engine; exhaust emissions, evaporative emission, and crankcase emission, and the major pollutants emerged from these engines are CO, CO2, SOX, NOX.
Present project work aims at reducing emissions. It is a well-established fact that smooth combustion minimizes the emissions, and exhaust process contributes a lot in accomplishing smooth combustion process. In present project work, different designs of exhaust manifold for a multi cylinder spark ignition engine are optimized for reducing emissions, by evaluating back pressures and exhaust velocities. For this purpose four different designs, namely, short bend centre exit, short bend side exit, long bend centre exit with reducer, and long bend side exit with reducer are considered, and their performance is evaluated for different loading conditions.
Design and Analysis of Inlet and Exhaust Valve Springs for High Speed Engines...IRJET Journal
This document discusses the design and analysis of inlet and exhaust valve springs for high-speed engines using finite element analysis. The authors designed valve springs using CREO parametric design software and analyzed them under different loading conditions to determine stresses and displacements. They found that the commonly used chromium-vanadium steel material did not meet the displacement requirements under maximum loads. To improve performance, the authors propose using a material with higher ultimate tensile strength and conducting heat treatments to modify material properties as needed. Finite element analysis was shown to be an effective method for predicting failure and optimizing the design of high-performance valve springs.
Prototyping an Exhaust Driven Turbogenerator for Automotive ApplicationsSaarth Jauhari
This document summarizes a student project to prototype an exhaust-driven turbogenerator for automotive applications. The project was undertaken by four students and presented to Mumbai University for their Bachelor's degree. The document outlines the various chapters that will be included, such as literature review on existing technologies, modeling and fabrication process, and future applications. It also provides specifications for the engine used in the prototype - a 1089cc four-cylinder gasoline engine from a Premier Padmini car.
IRJET- Design Development and Analysis of Low Pressure Bladeless TurbineIRJET Journal
This document discusses the design, development, and analysis of a bladeless turbine. It begins by providing background on Tesla turbines, which use boundary layer effects rather than blades. The proposed design aims to recover low pressure energy in process industries as an alternative to using throttle valves.
The design process is divided into system design and mechanical design. System design parameters like component arrangement and interaction with operators are considered. Mechanical design involves analyzing forces and selecting materials. Applications discussed include using compressed air/steam as a power source, waste pumps, and centrifugal blood pumps. The document concludes that the project helped apply engineering concepts to practical problems and learn teamwork skills.
Official results of entrance exam 2019 2020-officialreleaseAngelito Pera
1. This document lists the top performing examinees from the entrance examination for incoming 7th grade students from elementary schools in Cagwait, Surigao del Sur.
2. Jean Felicity Q. Mondalo and Brent Arthur C. Plaza from Cagwait Central Elementary School ranked 1st with a score of 91.7.
3. A total of 160 students passed the entrance examination and were approved for enrollment to San Antonio School for the upcoming school year 2020-2021.
The document outlines an in-service training for teachers on understanding culture, politics, and society. It discusses setting up a new classroom focusing on why teach, how to assess, how to teach, and what to teach. It also covers 21st century skills and the four exits of the KTO12 curriculum that learners should achieve. The training aims to help teachers design lesson plans aligned with curriculum guides using various acronyms. It provides an example of a sample teaching guide covering political and leadership structures with learning tasks and procedures.
Charlayne Veatrich Angel R. Rosales scored the highest on the entrance examination for incoming 7th grade students in Cagwait, Surigao del Sur, Philippines. Liza Mae C. Tatag and Rogelyn J. Español tied for second highest scores of 83.33. The document then provides a list of 128 students who passed the entrance exam, along with their names, scores, and recommendations for enrollment in grade 7.
Charlayne Veatrich Angel Rosales from Angel Aras-Asan Elementary School ranked first with a rating of 83.33 in the entrance examination for incoming grade 7 students in Cagwait, Surigao del Sur. Liza Mae C. Tatag from Unidad Elementary School ranked second with a rating of 86.66, and Rogelyn J. Espanol ranked third with a rating of 83.33. The document then provides a list of 128 students who passed the entrance examination along with their names, schools, and a recommendation for enrollment in grade 7.
FINAL REQUIREMENTS OF EMPOWERMENT TECHNOLOGIES AND PRACTICAL RES. 1Angelito Pera
This document from San Antonio School outlines requirements and deadlines for students in various grades and strands regarding their online classes in Empowerment Technologies and Practical Research 1. Students must submit individual reflection papers, encoded quizzes, PowerPoint presentations, and signed test questionnaires. Top performing students must also photocopy lists of top performers. Video presentation requirements include individual advertisements, advocacy videos by September 20th and learning reflections by October 15th. Group presentation requirements include a school campaign video by October 20th and dance instructional videos by October 15th. All requirements must be submitted to the online class archive by assigned Consolidators or Commissioners by the given deadlines.
The document discusses the nature and characteristics of inquiry and research. It defines inquiry as seeking to discover meaningful things through investigation and higher-order thinking strategies. Research is defined as a combination of empirical observation and logic used to search for answers and settle doubts. Some key characteristics of research mentioned include being scientific, experimental, inductive, logical, cyclical, analytical, critical, and methodical. The document also discusses different perspectives and fields that inquiry and research can be viewed from, such as processes, established bodies of knowledge, and sets of assumptions.
- The document presents the official results of practical research 1 and empowerment technologies first periodical examinations held on July 26-27, 2018 for students of San Antonio School in the Philippines.
- It lists the top performing students in each subject by rank, code, name, grade level, strand and ratings. For practical research 1, 85% of 40 examinees passed. For empowerment technologies, 80% of 70 examinees passed.
- A special periodical examination was also held on August 6-7, 2018 for 25 students, where 85% passed for both practical research 1 and empowerment technologies. Contact information is provided for inquiries about examination results.
- The document contains the official results of the first periodical examinations in English 7: Philippine Literature and Computer 7: Exploring ICT taken by 107 Grade 7 students from St. Anthony and St. John schools on July 26-27, 2018.
- It lists the top performing students in each subject, ranked by their scores. In English, 87% of students passed and in Computer, 85% passed based on the school's requirements.
- Contact information is provided for inquiries about successful examinees' results. The results are certified by the academic coordinator and are considered officially released on August 12, 2018.
This document provides an overview of various social media platforms, including:
1. Social networks like Facebook, Google+, and LinkedIn that allow users to connect and share content.
2. Bookmarking services like Diigo, Pinterest, and Pinboard where users can save and organize web links and pages.
3. Social news sites such as Reddit, Digg, and Slashdot where users can submit and vote on news stories.
4. Media sharing platforms like YouTube that enable users to upload and share photos, videos, and audio.
5. Microblogging sites including Twitter, Tumblr, and Instagram where users post short updates.
6. Blogs and forums for discussion through individual blogs
This document provides an introduction to a study on designing the Cabugo Profiling System for Barangay Cabugo in Bayabas, Surigao del Sur. It discusses how the current manual profiling system is time-consuming and inefficient. The objectives of the new computerized system are to address issues like reducing paperwork, easily accessing records, securely storing files, and updating resident information more easily. The scope of the system will be limited to Barangay Cabugo's records, while providing population statistics, household information, and other demographic details. The significance of the new system is that it will benefit students by providing hands-on experience with system design, faculty by demonstrating how to transition from manual to computerized systems
The documents contain lists of top performers in various subjects from the San Antonio School in the Philippines. Several lists recognize top scorers in Practical Research 2, Empowerment Technologies, Philippine Literature, and Exploring ICT. The top students are identified by name, sequence number, and score. The lists are certified by teachers Mr. Angelito T. Pera and cover examination periods from June to August 2017.
The document contains official grading sheets from San Antonio School for the first quarter of the 2017-2018 school year, listing the grades of students from Grade 7 - St. Anthony and Grade 7 - St. John in the subjects of English 7: Philippine Literature and Computer 7: Exploring ICT, certified by the ESL and ICT teacher Angelito T. Pera. Letters were also included forwarding the grading sheets to the class advisers of each section.
The document defines various computer and internet related terms including viruses, keyloggers, copyright, fair use, pharming, web 2.0, user participation, semantic web, bookmarking sites, news sites, media sharing sites, microblogging, blogs and forums, mobile technologies, operating systems, assistive media, spyware, incognito mode, adware, spam, trojans, mail merge features in Microsoft Word, and infographics. It also provides examples of media sharing sites, microblogging sites, blogs and forums, social networks, and defines folksonomy and features of the semantic web.
The Student Body Organization of San Antonio School is initiating an Intensive Reading Comprehension Program to promote literacy and reinforce students with low reading comprehension skills. They are requesting permission from the school principal to hold the program every Wednesday and Friday from 12-1pm in the school library, starting in August 2017. They are also asking the class advisers to identify students to participate and provide their names and details using an attached form. The program aims to help students appreciate reading comprehension through language and literature.
This report card summarizes a student's progress over the school year across academic subjects and core values. It shows the student's grades and remarks in learning areas like Filipino, English, Math, and Science. It also includes reports on attendance, observed core values like being God-loving, people-loving, nature-loving, and patriotic. The school welcomes parents to discuss the student's performance and progress further.
Rubric cle anest and most disciplined sasAngelito Pera
The rubric rates classrooms on cleanliness, organization, and discipline across 10 categories on a scale of 0-10 points. The categories include the floor, white/black boards, bulletin boards, windows, walls/corridors, disciplinary measures, cleaning implements, desks/chairs, the teacher's table, and an overall impression. For each category, descriptors define the highest level of cleanliness and organization that demonstrates class pride as well as levels that show signs of neglect. The rater is instructed to tour the classroom, evaluate it according to the rubric descriptors, and record their points for each category.
The Student Body Organization of San Antonio School is requesting permission to conduct an Intensive Reading Comprehension Program to promote literacy and reinforce students with low reading skills. The program will be held every Wednesday and Friday from 12-1pm in the school library, starting in August 2017. The SBO President and Adviser signed the letter requesting the Principal's approval to allow the program and notify class advisers. Attachments providing details of the program were included for review.
This report card summarizes a student's progress over the school year across academic subjects and core values. It shows the student's grades and remarks for each subject in the different quarters as well as their general average. It also includes details of attendance, observed core values based on behavior statements, and spaces for parent/guardian signatures acknowledging receipt of the report. The school administration welcomes parents to learn more about their child's performance and progress.
- Jose Garcia Villa was a renowned Filipino poet born in 1914 who introduced new techniques to poetry like reversed consonance rhyme and extensive use of punctuation. He was awarded the title of National Artist of the Philippines.
- The poem "Proem" discusses Villa's philosophy that the meaning of a poem is symbolic rather than based on the words, and that a poem's purpose is to caress rather than convey thoughts or have meaning.
- "Sonnet I" lists qualities a poem must have to be magical, musical, bright, slender, hold fire and wisdom, kneel like a rose, and allow God to hover over it with a smile.
This document discusses imagery in writing and provides many examples of imagery used in single sentences. It defines imagery as descriptive language that appeals to one or more of the five senses. Short passages from poems, songs, and other works are presented to illustrate vivid imagery. Examples show how imagery can efficiently paint a picture or scene in just one sentence through creative word choices and metaphors.
🔥🔥🔥🔥🔥🔥🔥🔥🔥
إضغ بين إيديكم من أقوى الملازم التي صممتها
ملزمة تشريح الجهاز الهيكلي (نظري 3)
💀💀💀💀💀💀💀💀💀💀
تتميز هذهِ الملزمة بعِدة مُميزات :
1- مُترجمة ترجمة تُناسب جميع المستويات
2- تحتوي على 78 رسم توضيحي لكل كلمة موجودة بالملزمة (لكل كلمة !!!!)
#فهم_ماكو_درخ
3- دقة الكتابة والصور عالية جداً جداً جداً
4- هُنالك بعض المعلومات تم توضيحها بشكل تفصيلي جداً (تُعتبر لدى الطالب أو الطالبة بإنها معلومات مُبهمة ومع ذلك تم توضيح هذهِ المعلومات المُبهمة بشكل تفصيلي جداً
5- الملزمة تشرح نفسها ب نفسها بس تكلك تعال اقراني
6- تحتوي الملزمة في اول سلايد على خارطة تتضمن جميع تفرُعات معلومات الجهاز الهيكلي المذكورة في هذهِ الملزمة
واخيراً هذهِ الملزمة حلالٌ عليكم وإتمنى منكم إن تدعولي بالخير والصحة والعافية فقط
كل التوفيق زملائي وزميلاتي ، زميلكم محمد الذهبي 💊💊
🔥🔥🔥🔥🔥🔥🔥🔥🔥
Leveraging Generative AI to Drive Nonprofit InnovationTechSoup
In this webinar, participants learned how to utilize Generative AI to streamline operations and elevate member engagement. Amazon Web Service experts provided a customer specific use cases and dived into low/no-code tools that are quick and easy to deploy through Amazon Web Service (AWS.)
THE SACRIFICE HOW PRO-PALESTINE PROTESTS STUDENTS ARE SACRIFICING TO CHANGE T...indexPub
The recent surge in pro-Palestine student activism has prompted significant responses from universities, ranging from negotiations and divestment commitments to increased transparency about investments in companies supporting the war on Gaza. This activism has led to the cessation of student encampments but also highlighted the substantial sacrifices made by students, including academic disruptions and personal risks. The primary drivers of these protests are poor university administration, lack of transparency, and inadequate communication between officials and students. This study examines the profound emotional, psychological, and professional impacts on students engaged in pro-Palestine protests, focusing on Generation Z's (Gen-Z) activism dynamics. This paper explores the significant sacrifices made by these students and even the professors supporting the pro-Palestine movement, with a focus on recent global movements. Through an in-depth analysis of printed and electronic media, the study examines the impacts of these sacrifices on the academic and personal lives of those involved. The paper highlights examples from various universities, demonstrating student activism's long-term and short-term effects, including disciplinary actions, social backlash, and career implications. The researchers also explore the broader implications of student sacrifices. The findings reveal that these sacrifices are driven by a profound commitment to justice and human rights, and are influenced by the increasing availability of information, peer interactions, and personal convictions. The study also discusses the broader implications of this activism, comparing it to historical precedents and assessing its potential to influence policy and public opinion. The emotional and psychological toll on student activists is significant, but their sense of purpose and community support mitigates some of these challenges. However, the researchers call for acknowledging the broader Impact of these sacrifices on the future global movement of FreePalestine.
Chapter wise All Notes of First year Basic Civil Engineering.pptxDenish Jangid
Chapter wise All Notes of First year Basic Civil Engineering
Syllabus
Chapter-1
Introduction to objective, scope and outcome the subject
Chapter 2
Introduction: Scope and Specialization of Civil Engineering, Role of civil Engineer in Society, Impact of infrastructural development on economy of country.
Chapter 3
Surveying: Object Principles & Types of Surveying; Site Plans, Plans & Maps; Scales & Unit of different Measurements.
Linear Measurements: Instruments used. Linear Measurement by Tape, Ranging out Survey Lines and overcoming Obstructions; Measurements on sloping ground; Tape corrections, conventional symbols. Angular Measurements: Instruments used; Introduction to Compass Surveying, Bearings and Longitude & Latitude of a Line, Introduction to total station.
Levelling: Instrument used Object of levelling, Methods of levelling in brief, and Contour maps.
Chapter 4
Buildings: Selection of site for Buildings, Layout of Building Plan, Types of buildings, Plinth area, carpet area, floor space index, Introduction to building byelaws, concept of sun light & ventilation. Components of Buildings & their functions, Basic concept of R.C.C., Introduction to types of foundation
Chapter 5
Transportation: Introduction to Transportation Engineering; Traffic and Road Safety: Types and Characteristics of Various Modes of Transportation; Various Road Traffic Signs, Causes of Accidents and Road Safety Measures.
Chapter 6
Environmental Engineering: Environmental Pollution, Environmental Acts and Regulations, Functional Concepts of Ecology, Basics of Species, Biodiversity, Ecosystem, Hydrological Cycle; Chemical Cycles: Carbon, Nitrogen & Phosphorus; Energy Flow in Ecosystems.
Water Pollution: Water Quality standards, Introduction to Treatment & Disposal of Waste Water. Reuse and Saving of Water, Rain Water Harvesting. Solid Waste Management: Classification of Solid Waste, Collection, Transportation and Disposal of Solid. Recycling of Solid Waste: Energy Recovery, Sanitary Landfill, On-Site Sanitation. Air & Noise Pollution: Primary and Secondary air pollutants, Harmful effects of Air Pollution, Control of Air Pollution. . Noise Pollution Harmful Effects of noise pollution, control of noise pollution, Global warming & Climate Change, Ozone depletion, Greenhouse effect
Text Books:
1. Palancharmy, Basic Civil Engineering, McGraw Hill publishers.
2. Satheesh Gopi, Basic Civil Engineering, Pearson Publishers.
3. Ketki Rangwala Dalal, Essentials of Civil Engineering, Charotar Publishing House.
4. BCP, Surveying volume 1
Andreas Schleicher presents PISA 2022 Volume III - Creative Thinking - 18 Jun...EduSkills OECD
Andreas Schleicher, Director of Education and Skills at the OECD presents at the launch of PISA 2022 Volume III - Creative Minds, Creative Schools on 18 June 2024.
How Barcodes Can Be Leveraged Within Odoo 17Celine George
In this presentation, we will explore how barcodes can be leveraged within Odoo 17 to streamline our manufacturing processes. We will cover the configuration steps, how to utilize barcodes in different manufacturing scenarios, and the overall benefits of implementing this technology.
Level 3 NCEA - NZ: A Nation In the Making 1872 - 1900 SML.pptHenry Hollis
The History of NZ 1870-1900.
Making of a Nation.
From the NZ Wars to Liberals,
Richard Seddon, George Grey,
Social Laboratory, New Zealand,
Confiscations, Kotahitanga, Kingitanga, Parliament, Suffrage, Repudiation, Economic Change, Agriculture, Gold Mining, Timber, Flax, Sheep, Dairying,
1. Chapter 1
The Problem and Its Scope
Introduction
An engine stand is a tool commonly used to repair large
heavy gasoline or diesel engines. It uses a heavy cantilevered support structure
to hold the engine in midair so that the mechanic has access to any exposed
surface of the engine. While small single-piston engines can commonly be laid
on a table for repair, a large engine is normally meant to be supported from its
engine mounts or from the flywheel transmission case mounts and fragile
components such as oil pans and valve covers would be crushed if the large
engine were placed on a flat surface.Engine stands are typically mounted on
large casters so than an engine can be moved around the shop to different test
and repair stations, and the engine can often be rotated in midair to provide
easier access to underside surfaces of the engine. The engine stand is
commonly used in combination with the engine crane to remove or install an
engine in a vehicle, break in that engine, and perform repairs.
On the other hand, the design of the stand engine requires fundamental
requirements and
An engine stand is illustrated having a universal mounting apparatus for
securing loads such as different sizes of automotive engines and the like to a
rotatable face plate which has a wheeled stand therefor. The invention further
contemplates an extensible wheeled support on the stand having adjustable
means for balancing and stabilizing the load carried by the universal mounting.
4. Table 1. Schematic Diagram of the Present Study
This shows schematic diagram of the study includes the Input, Process
and Output (IPO) format. The Input includes the design, utility, functions,
experiments, prototype heating and boiling activity performance. Process shows
that the homemade water is an electric-based which means that it is powered by
electricity.
On the other hand, the output of this study is to come up with a
prototype/sample homemade water paper for boiling and heating water in
response to the traditional water heating procedure in the households.
Designs,
Mechansims,
Functions,
Tests and
Activities
And Performance
Engine Stand
5. Significance of the Study
The findings of this study will be very helpful and beneficial to the following
persons, institutions and group of individuals:
Automotive Technology Instructors: This study will provide them
information and background knowledge in the design of engine stand in order to
conceptualize and understand its designs, mechanisms, functions, tests,
activities and performance with respect to its usefulness and operationability for
vehicle and engine use. Furthermore, the findings will be useful and helpful in
their instruction so that the students will be given the opportunity and experience
in designing an engine stand as learned and gained concepts, theories and
applications of this study. Thus, it will provide new information, techniques and
trends with respect to the design of engine stand considering its elements and
requirements for vehicle and engine use.
AutomotiveTechnology Students: This study will encourage them to
design an engine stand guided by its concepts, theories and principles that each
of them will be given the opportunity to discover and enhance their exploratory
and inventive skills and competencies in their area of specialization.
Furthermore, this study helps them to understand intensively the design.
mechanisms, functions, tests, activities and performance of the engine stand in
its usefulness, functionality and operationability to vehicles and engines. In other
words, the students are actually exposed and engaged to the various activities
which involved design, create, invent and conceptualize an engine stand which is
useful and helpful in repairing the damaged engines/diesels.
6. Future Researchers: This study will give further knowledge in the design
of engine stand encompassing its functions, mechanisms, tests, activities and
performance. On the other hand, the design of an engine stand is considered of
this as an innovation that will showcase the students’ skills, understand the
concepts and applications and encourage technical aspects in the design of
engine stand which will require student participation and involvement as guided
by the expertise of their instructor. Thus, this study will give more inputs and
highlights in the design of engine stand.
7. Statement of the Problem
As the engine stand focused in this study will establish functionality,
usefulness and operationality to damaged engines/diesels. Thus, it will provide
solution to engine problems and it will demonstrate students’ critical thinking,
problem solving and inventive skills in the design of a engine stand for
engine/diesel use.
This study will seek specifically to answer the following questions:
1. What is the design of the engine stand?
2. What are mechanisms and functions of each part of the engine stand?
3. What are tests and activities involved that will test its functionality,
operationability, usefulness, effectiveness and durability of the engine
stand?
4. What are other engine related-performances that the engine stand can do
for engine/diesel concerns?
Scope and Limitations of the Study
This research is actually conducted at Automotive Technology Room at
Surigao del Sur State University-Cagwait Campus from January to March of the
Academic Year 2015-2016. Moreover, this study highlights and presents the
design, mechanisms, functions, tests and activities that will test its functionality,
operationability,usefulness, effectiveness, durability and other engine related-
performances that the engine stand can do for engine/diesel concerns. On the
other hand, it actually presents on how the engine stand is useful and helpful in
engine /vehicle operations and repair system.
8. Definition of Terms
The different terminologies used in the development of the study are
operationally and lexically defined below for clarity and easy understanding
among readers:
Design refers to the external and internal features of a certain invention.
In this study, the term is used to identify the different parts of the homemade
water system.
Mechanisms refer to the parts and functions found of a certain inventions.
In this study, the term is used to identify the parts of the homemade water heater
and how each of the parts is functioned.
Utility refers to the usefulness of a certain invention that will do and
respond specific actions. In this study, the term is used to describe the uses and
benefits of the homemade water heater.
Experiment refers to a series of tests of activities of specific tasks and
activities to define its effectiveness and usefulness. In this study, the term is used
to identify on what experiments are conducted for the homemade water heater
to define its usefulness and effectiveness.
Prototype refers to a certain project in a form of miniature or original
invention that will show the final and assembled project/invention. In this study,
the term is used to describe to what is the structure/miniature of the Homemade
Water Heater.
Heating Activity refers to the embedded function of an electric
homemade which includes functions and specifications. In this study, the term is
9. used to identify the heating activities and functions through experimental set ups
conducted for the homemade water heater.
Water Heater refers to a kind of household appliance which facilitates the
heating and boiling of water made of metal and electrically powered. In this
study, the term is used to describe the features, mechanisms and functions of
the homemade water heater.
10. Chapter 2
REVIEW OF THE RELATED LITERATURE AND STUDIES
This chapter presents the Review of Related Literature and Related
Studies of the present study in the inside and outside the country.
Related Literature
Foreign
One Of The Distinct Engines Stands Ever Made
The range of Rolls Royce engine tooling has some different features from the
othertooling equipment. For the routine maintenance, a Rolls Royce engine
tooling have been traditionally been striped and built on ground based engine
built stand. The RollsRoyce engine stand has been designed on the basis of
two manipulators, which can be used in a complete range of engine. The Rolls
Royce engine tooling has been designed to exacting standards and the
supporting tooling like the carriers and interface tooling were all subject to
individual strength tests. They are the new players in the aviation market has an
agreement with a company with hydro for products and services related to
engine built and ground supporting system. Their main tooling and parts consist
of build and strip tooling, ground support equipment, line maintenance tooling,
component repair tooling, whole engine transportation stand, electrical test
equipment, engine blank and special to product test equipment. The Rolls
Royce engine stand has its unique features such as 45degree
Positioningwheel with ball lock pin secures engine giving 8 angles of
maintenance access, Sturdy
11. welded steel construction, Easy manoeuvring with 2 swivel and 2 rigid heavy
duty casters, Centre foot operated grips firmly to stabilize stand during
maintenance operation, Handy oil recovery pan to avoid damage to hangar floors
and Durable Powder Coat Tonier Blue.
The Rolls Royce engine tooling kit comes with the adapters in different
variants such as K2108, K2110, K2111. They are having a leading edge
technology business which has completely changed the picture of Rolls Royce in
the world. The company is now leading the field not only in big engines sales but
also in support of those engines so that airlines business of flying people and
cargo around the globe should be met. Rolls Royce has its own competitive
advantage in manufacturing of its engine toolingand engine stand and they
supply the products to many of their aircrafts and airline businesses for which
they have a very positive market share.
Aircraft Engine: The Best Portability Solution For Those Giant Engines.
Aircraft engine stands are units developed to change the work load
associated stress that comes with loading and unloading of an engine. The work
becomes easy and straightforward with engine stands. The stands area unit thus
deigned that it's able to see and modify every and each half well. alternative
advantage that comes with these engines is that they permit North American
country to switch and repair engine and its components whereas flying within the
air. it's an incredible resolution for imperative problems which may occur whereas
flying on the plane.
Types of engine stands:
12. Rollover stands — rotates (rolls) the interchange place to realize minimum
height/width profile for loading through transport payload doors.
GEnx-1B -2B twin purpose stand — offers improved safety and value
through hydraulically activated elements, including: caster readying,
engine rotation and lifting systems. Supports 2 of the OEM’s commonest
turbofan platforms; all elements and elements are kept on-board.
little engine stand — designed for the final aviation trade to boost the
upkeep and repair of four- to six-cylinder engines that weigh up to 600
pounds. Options 180-degree rotation, industrial lockable wheels, spare
elements receptacle, multiple engine mounting adapters associate
degreed a swollen drip pan.
Split stands — permits for transportation of rotary engine engines in split
configuration; permits engines to be stowed in hold.
Fan stands — permits for the transportation of the GEnx-1B and -2B fan
modules.
LM2500 shipping skid and LM2500 check dolly — designed for safe
shipping and transport of the LM2500 engine.
Miscellaneous stands — look dollies; fan stands; check stands.
The stand permits fitting associate engine into the stand simply. Once a stand
holds the engine well, it will be affected to anywhere while not a scratch thereon.
It's a secure choice to keep associate engine harmless from any harm which may
occur whereas moving it. associate engine could be needed to maneuver for
13. several problems like harm within the engine, fault within the fan or the other half,
that must be checked forthwith to avoid any problems additional.
It is relatively straightforward to ascertain, clean, repair, and maintain an
engine in an exceedingly automotive and alternative vehicles. The task is simple
as a result of one wants to not fly high within the sky to try and do thus. Whereas
within the case of associate engine in associate craft, it's riskier to alter or repair
associate engine.
Hence, exploitation associate engine stand could be a higher and safe choice
to move that significant engine with comfort and ease, to induce the work done,
and place it back to its place.
BASICCONCEPTOF ENGINEPERFORMANCE
Engine performance characteristicsare convenientgraphical presentationof an
engine performance.Theyare constructedfromthe dataobtainedduringact
ual test runs
of the engine andare particularlyusefulincomparingthe performance of one engine with
that of another.In thissectionsome of the importantperformance characteristicsof the SI
engine are discussed
FOUNDATION OF ENGINE
PERFORMANCE
TESTING
here are somany typesof dynamometers;the principle
of anydynamometeroperationistoallow the casingto swingfreely(
A.J.Martyr and
14. M.A. Plint
, 2007). The reactiontorque onthe casing,whichisexactlyequal tothe engine
tor
que,ismeasuredona level length,L,fromthe centerline of the dynamometerasforce,
F. Thisrestrainsthe outside casingfromrevolving,orthe torque andpowerwouldnotbe
absorbed(
G. P. Blair,1996 and
A.J.Martyr andM.A. Plint
, 2007
to repairand maintainengine
troughdiagnosticanalysissystemwiththe resultisthe efficientoperationof enginesof
all designs(
J. Erjavec,2006
).Both theorieshave differentobjectives.First,tolearn
performance engineus
eddynamometer.The goal iscouldbe developedengine
performance ormay be alsogive service tocustomersforselectedanengine.Second,is
to monitoringof engine inordertohave the efficientoperationusing diagnostic
techniques.
DEVELOPMENT OF ENGINE PERFORMANCE
TESTING
There are so many research developments on two stroke engine.
One of them has
been conducted by Merrit and Bennett. The research describes a
new stratified c
harge
15. burn combustion management system based on the invention of a
new gas dynamic
segregation system (D Merritt and M C Bennett, 2006).
Another research has been developed by Gordon. 100 cc of two
stroke diesel
engine was used to investigate the drawbacks of the injection
system. The ultimate
performance was limited by a mechanical fuel injection system (RL
Gordon, 2005). The
we
akness could be consisted by used a high pressure pump, and
electromagnetically
actuated, balanced valve and a miniature fuel injector, as the result
successfully
demonstrated to offer full flexibility in injection timing and fuel
delivery. A weight
saving
of up to 25% was also shown, proving the viability of the new,
miniature fuel
injection system concept.
Local
16. An engine stand is a very important tool that every mechanic should have.
This equipment is commonly used to repair any heavy diesel or gasoline engine.
Usually, it has a cantilevered support structure that can hold any type of engine
in midair. This will give the mechanic the means to access hard to reach parts of
the engine. Engine stands are meant to repair large engines, especially its fragile
components like valve coves and oil pans. These parts will be crushed if the
engine is placed on a flat surface.
Basically, engine stands are mounted on solid casters, so that it can be
moved around the shop and can easily be accessed by any of its repair stations.
Usually, this equipment work hand-in-hand with engine cranes. These two
significant auto repair tools are used to install or remove engine vehicles or to
simply perform repairs. Therefore, engine stands are vital in any auto repair
facilities. Having your very own engine stand is as important as any of your repair
equipment. However, buying one is not as easy as you think, especially if you
don’t know what to look for in these types of tools.
Fortunately, you can now buy an engine stand on the Internet through
various online engineering supply companies. But before you decide on a
particular company, you need to check the credibility of the seller you’re dealing
with. They need to be in the business of selling engine stands for years and their
credibility must be based on good customer service. One good example for this
is SGS engineering solutions which is known for its high quality auto repair
equipment. In fact, they offer specialized tools and equipment for vehicle
maintenance shops. So, if you need this particular tool and you want the most
17. credible engineering company to supply you with this equipment, then you must
checkout SGS engineering solutions for more details. In fact, engine stands can
be found online at http://www.sgs-engineering.com/.
http://www.alextheinformer.com/2013/04/the-importance-of-engine-stands.html
ALEX REILLO, 2013
19. Chapter 3
RESEARCH METHODOLOGY
This chapter covers the research design, research locale, and research
planning and procedure and research time target.
RESEARCH DESIGN
This study used developmental-experimental research design in order to
understand its design and mechanisms and to analyze it experimental set ups in
conducting heating activities. For instance, Engine Stand.
RESEARCH LOCALE
This study was conducted at Automotive Technology Laboratory of the
Surigao del Sur State University-Cagwait Campus, Poblacion, Cagwait,
Surigaodel Sur for Academic Year 2015-2016.
RESEARCH PLANNING AND PROCEDURE
A letter of request to conduct the study entitled ” Homemade Water
Heater” was submitted to the Office of the Campus Director of this Campus
which allowed the student researchers to use the Automotive Laboratory Room
for their developmental and experimental research activities. After the approval
was secured, the design, planning and conceptualizing of the Homemade Water
Heater was started.
RESEARCH TIME TARGET
The time target accomplishment of this research will be on January to
March of the Academic Year 2015-2016. Thus, there are series of experiments,
20. and tests will be involved and conducted for homemade water heater in terms of
water heating and boiling activities.
21. DESCRIPTION
BACKGROUND OF THE INVENTION
Engine stands and the like constructed in accordance with the prior art have been
relatively complex, generally requiring a wheeled stand providing spaced vertical support
members between which the load in the form of an engine and the like is carried. Such supports
limit accessibility to the load or other structure upon which repair or construction work is being
carried out. In the case of engines, different makes, models and sizes require mounting plates of
special construction for attaching the load to the face plate. The problem is brought about
because the surfaces of the various makes of engines are at different levels requiring the flat face
plate to be joined with an irregular surface. The standard face plate provided for any given engine
would have bosses and the like which are specially provided for that make of engine. The plates
are expensive and one for each type of engine to be serviced must be provided.
Accordingly, one of the objects of the present invention is to provide a universal mounting
face plate which may accommodate an engine and the like of any size and manufacture.
Another important object of the invention is the provision of a load balancing and stabilizing
means in the form of an extensible wheeled member carried by the wheeled base which may be
raised in order to fix and balance the load as positioned by the universal mounting means which
may require more spacing from the face plate of the engine stand in some instances than in
others.Prior art devices are typified by the engine stand illustrated in U.S. Pat. No. 3,218,056
wherein a special spaced forward support is provided for stabilizing the forward portion of the
engine.
BRIEF DESCRIPTION OF THE INVENTION
It has been found that a universal motor mounting apparatus may be provided for use on
an engine stand wherein adapter members are attachable to the engine for accommodating studs
and transfer bars carried thereby to accommodate a mounting plate. The mounting plate is
positionable upon the face plate of the engine stand. It is important that the stud members be
positionable at an angle in order to accommodate not only engine surfaces at various levels but
also inclined engine surfaces. This may be accomplished by providing a pivotal connection
22. between the threaded members and the studs. It has also been found that forwardly extensible
wheeled load leveling members may be provided by a wheel base member and such preferably
incorporate a vertical threaded stud member for immobilizing the base portion and leveling the
load positioned by the universal mounting apparatus.
DESCRIPTION OF A PREFERRED EMBODIMENT
A motor mounting apparatus for use on an engine stand has a wheeled base with a vertical stand
carried thereby and a rotatable face plate on said stand. A plurality of threaded members A are
attachable to the engine. A plurality of threaded studs B are receivable upon the threaded
members. A plurality of transfer bar members C are attachable to the studs, and a mounting plate
D is attachable to the transfer bar members and to the face plate. Means E pivotally connect at
least one of the threaded members and one of the studs. Forwardly extensible wheeled load
leveling elements F are carried by the base for balancing and stabilizing loads carried by the
mounting apparatus.
The engine stand includes a wheeled base having a pair of spaced legs 11 and 12 which extend
forwardly from a transverse bridging member 13. Rear wheels 14 are carried adjacent the rear of
the legs 11 and 12 or by the transverse support 13. A vertical standard or column 15 carries the
engine mounting mechanism. The column 15 carries a vertically disposed hydraulic ram 16 for
raising and lowering the face plate mounting means 17 which is pivotally secured to the column
as at 18. The face plate is illustrated at 19 and is driven for rotation by the shaft 20. The shaft 20
carries a worm gear 21 within the gear box 22. The worm 23 may be turned manually by the
crank 24 to rotate the load illustrated in the form of an engine by broken lines 25 in FIG. 1.
It will be noted that the engine 25 has a number of pads 25a, 25b and 25c to accommodate
various accessories or other associated engine parts. In this instance, the pads accommodate
threaded members A which are attachable thereon by bolts or other threaded means 26. Each of
the members A have an internally threaded member such as a nut 27 which is secured thereto as
by welding (not shown). In the case of an inclined surface of the load such as illustrated at 25d, a
pivotal connection E is provided for joining the members A with the threaded stud members B.
This is provided in the form of a vertical leg 28 carried upon the member A together with a
23. complimentary leg 29 which carries the internally threaded member 27 thereon. The respective
legs 28 and 29 are connected together as by a pivot pin 30.
https://www.google.com/patents/US4239196, James Hanger
ENGINE STAND.
Application led October 29, 1921. Serial No. 511,349.
This invention relates to engine .stands for supporting motors so that the same may away from
the arms of the stand, as welll as being capable of being positioned at any angle thereto within
the usual limits required.
Further objects of the invention will be apparent from the following description and include the s
everal improvements illustrated and described and covered by the claims.'
There are a number of engine stands on the market today, some of them being quite satisfactory
with certain types of engines, but which are not adaptable for use with other types. With the
present stand any motor of any type from a light two-cylinder buckboard motor to the very heavy
automobile truck motors may be accommodated. lThis great range of service is possible due to
the various adjustable Jfeatures of the present stand, for example, the standards are movable
with relation'to each other; the heads are adjustable vertically; the arms are pivoted so as to
swing through the entire 360; the carriers are slidable throughout the length of the .ways or arms;
the distance pieces are secured to the carriers and to the cross-piece by pivotal means so as to
be secured at any desired angle; and the supporting or spacer members are movable freely in the
longitudinal slot of the crosspiece and are adjustable at any distance therefrom.
As shown in the perspective view, the motor is secured to two of the carriers in the same manner
as it is secured to the chassis frame, while .at the other end the supporting members and the
cross-piece hold the front end of the motor in a position of convenient accessibility, the supporting
members attaching directly to the inner face of the gear housing, the panel for which is removed
before the motor is attached to the frame. l
Fig.'r 1 is a perspective view of my device 1n lts preferred form, and
Fig. 2 is a central vertical section through the cone clamp and head of the standard.
24. Fig. 3 is a perspective of the device shown with a different motor and with the pivoted arms
turned thru approximately 180.
My device consists of three main parts, namely, the frame A, the standards B, and
the truck C. The frame is pivoted to the standards and the latter are mounted in pedestals 10 and
11, respectively, one of which may be permanentlysecured to the truck, while the other is
adjustable thereon 4to correspond to the diierent widths ofchassis in common use. The truck is
preferably fu'rnished with casters or wheels so as to be conveniently moved from place to place.
The truck consists of a pair of wheeled bases 12 and 13 which may be of different lengths as
shown, each consisting of a pair of angle irons secured together at either end 'by their fasteningl
to the caster support 15 and intermediately by the angle clips 16 t0 which are secured the parallel
beam's 17 forming the longitudinal members of the truck.
Each of the pedestals consists of a single casting providing a vwide base 19 grooved to tit the
corners of the bars 17 and recessed-to form four legs to reduce the friction of the pedestal
against the bars whenl the former is moved. From the base 19 rises a socket 2O centrally
strengthened on either side by a triangular stiti'ening member 21, the socket being split on either
side and in proximity to the stitiening member 21 so that one slot will be to the right of one of
these stiening members, while the other will be to the lettot the opposite member, in order that
each split portion shall consist of a semicylinder and an integral stiifening web.
The standard B consists of two telescoping portions 22 and 23, the former being secured in the
socket of the pedestal by a bolt 24, which not only binds the member 22 to the pedestal, but also
draws together the two split portions of the socket.v The inner and smaller member 23 of the
standard receives at its upper end the' head 25 which may b'e secured to it in any, desired
manner and at its lower portion is perforated with a number of holes 26 adapted to engage with a
pin 27 passing through the upper endK of the member 22 so as to hold the head of the
telescoped standard at the desired adJusted height. x c
The head 25 is provided at one side with a cup member 29 into which is fitted the cone clamp 30
which is provided in its outer flat face with a grooved recess 3l to receive the arms 32 forming the
longitudinal members of the frame A.- A bolt 33 having a reduced end 34 is mounted centrally of
25. the head and cup member and passes through the cone clamp 30 as well, the shoulder between
the larger portion of the bolt and the reduced portion 34 abutting against the` outer face of the
angle iron arm 32 which is secured against such shoulder by means of the nuts 35 so that the
bolt, clamp and angle iron arm' move as a unit, and may for all purposes be considered as
integral.y The end ofthe bolt 33 that passes through the head is threaded to receivea nut 37
which is loosened byV means of a socket wrench, such as 38 to permit the turning of the frame
on its pivots and when this nut 37 is tightened, the frame is locked in position by means of the
frictional engagement between the cone clamp 30 and the correspondingly shaped recess in lthe
cup 29.
The supporting arms 32 plvotedas )ust described are capable of swinging throughout the entire
360o of a circle so that when a motor is mounted upon these arms in the way illustrated, the
motor can be swung into any desired position and the frame may be locked to maintain it at the
chosen angle by merely tightening the nuts 37. A pair of carriers 40 are slotted to slide upon the
arms 32 and may be secured at any distance from the pivot by tightening the set screw 41. These
carriers each has an inwardly extending projection 42 serving as a bracket to support the rear
end of the motor and for this purpose the bracket is slotted to receive the standard bolt which
secures the usual integral ear of the fly wheel casing to the chassis frame. In some motors the
rear end is not supplied with ears loverlapping the chassis bars', but is secured to them by means
of special fittings'. In such cases as' this an angle clip is mounted upon the bracket end of the
carrier and the rear end of the motor frame is secured to this an le .clip in well known manner.
The ront end of the motor is secured to the frame A by means of connections with a cross piece
45 lwhich consists in a pair of parallel bars 46 and 47 secured to and spaced from each other by
the bolts 48 and the spacing sleeves 49 mounted thereon, this construction forming a cross piece
having a central slot in which the sup orting or suspending members 50 are free y slidable
longitudinally of the cross piece. Each of these supporting members consists of a threaded rod
having a flattened circular perforated end 51, this rod being threaded throughout its entire length
as shown, and being fsecured in the slot of the cross piece by means of washers 52 and nuts 53.
26. The cross piece 45 is supported above the carriers 40 by means of distance or spacing pieces
55, each of which hasa smooth central portion 56 which may be cylindrical or may be squared for
convenience in holding it, while the ends are threaded right and left handed to receive nuts 57 for
engagement with the cross piece and similar nuts 58 which secure the distance piece to the
bracket end 42 of carriers exactly similar to those previously described, all of these nuts being
provided with the usual washers.
lVhile it is not intended that the cross piece should ever be arranged other than parallelto the
upper faces of the carriers, it will be noted that the carriers may be arranged at different distances
from the pivots of the arms, and since the distance pieces 55 are cylindrical, and therefore have a
pivotal engagement with both the cross piece and the carriers, the cross iece may be arranged at
any desired ang e to the arms. It will usually not be necesary to thus angle .the cross piece since
in normal operation it will be arranged parallel to the plane of the flange of the gear housing and
the sup orting members 50 will be'adjusted vertical y and horizontally so that the per-` is
perforated at its lower end to receive the shaft of a bolt 66 having a solid integral head 67. This
bolt 66 is threaded through a bridge member 70 clamped to the beams 17 by means of the thumb
screws 71 and the bolt or adjusting member 66 is provided with a small handle` 724 at its end so
that it is not necessary to carefully adjust the distance between the two pedestals, since by
securing the bridge 70 and by turning the handle 72, the movable pedestal may readily be
brought to the exact location desired.
When the frame A is moved so that the bars 32 are vertical it-might appear that a very great
stress was thrown upon the four set screws 41. This however, is not the case as, due to the
pivotal connection of the vdistance pieces 55 with both the cross-piece
Manley Robert E.