What Mechanical Estimating Is, Who It Is For, and Its Benefits
Calculating the cost of the materials and labour needed to execute a mechanical project is referred to as mechanical estimating. This covers activities like fire safety, plumbing, HVAC, and electrical. Mechanical estimators produce precise estimates using their understanding of the materials, labour costs, and project needs.
Mechanical estimation is crucial to the building process. It enables contractors to precisely estimate projects and guarantee a profit. Additionally, it aids clients in understanding project costs and assisting them in making budget-related decisions.
Why is mechanical estimating necessary?
Many people in the construction business employ mechanical estimating, including:
Contractors: To bid on projects and guarantee a profit, contractors employ mechanical estimating.
Owners: Owners use mechanical estimating to comprehend the expenses associated with their projects and to make wise budgetary judgements.
Engineers: Engineers track expenses as the project develops and employ mechanical estimating to develop precise project budgets.
Project managers: To keep track of costs and make sure the project stays within its budget, project managers employ mechanical estimating.
Mechanical Estimating’s Benefits
The use of mechanical estimating has a number of benefits, such as:
Accuracy: Mechanical estimating can assist in making sure that tasks are finished on schedule and within the allotted spending limit.
Competitiveness: Mechanical estimating can assist contractors in becoming more competitive in the solicitation of bids.
Mechanical estimation can aid in better communication between engineers, owners, and contractors.
Making decisions: Mechanical estimation can assist owners in choosing the best course of action for their projects.
Anyone who works in the construction sector will find mechanical estimating to be a useful tool. It can support owners in making knowledgeable decisions about their projects and ensuring that projects are finished on schedule and within budget. There are many resources accessible online and in libraries if you’re interested in learning more about mechanical estimation.
Additional benefits of mechanical estimating include the following:
Early detection of possible cost overruns can be beneficial since it gives the contractor time to make necessary corrections.
As the contractor will be more aware of the resources needed, it may help to ensure that the project is finished on schedule.
Since the contractor will be able to choose the best supplies and workers for the job, it may help to raise the project’s quality.
Overall, mechanical estimating is a useful tool that may help any construction project succeed.


The SAP2000 Cloud Viewer app allows you to view your SAP2000 model on your mobile device. With the help of your free CSiCloud account, you can upload your SAP2000 models to your secure Dropbox account from within the SAP2000 program and then view them on your mobile devices. Models may be viewed in plan, elevation, or extruded views, displaying model geometry and some analysis results. For more information, please visit the CSiCloud FAQ page.
The ETABS Cloud Viewer app allows you to view your ETABS model on your mobile device. With the help of your free CSiCloud account, you can upload your ETABS models to your secure Dropbox account from within the ETABS program and then view them on your mobile devices. Models may be viewed in plan, elevation, or extruded views, displaying model geometry and some analysis results. For more information, please visit the CSiCloud FAQ page.
An essential tool for professional engineers and engineering students alike, CSiSections computes the structural properties of various commonly-used sections with the touch of a finger. CSiSections instantaneously displays basic analysis properties such as area, shear areas, moment of inertias, including principal directions and principal inertias, torsional constant and centroidal location, along with showing their calculations for multiple sections such as flanged, built-up, circular, polygonal and unsymmetrical sections. Also included are design properties such as radii of gyration, section modulii, and plastic modulii.
Going beyond the basics of millimeters in a mile or minutes in a year, the CSiUnits conversion app converts the units of measurements found in nearly all the engineering specialties — including density, stress, torque, velocity, pressure, force, and moment — with the tap of a finger. With a clean and straightforward user interface, CSiUnits is an indispensable tool designed not just for engineers but for students, hobbyists and professionals in a range of disciplines, offering the most complete range of unit conversions available in a smartphone application.
CSiSteel features a comprehensive library of steel sections and their structural properties, allowing users to search and select optimum steel sections for both ASD & LRFD steel design methods, view equivalent sections based on user selection criteria, and search and sort for sections based on multiple parameters, including section properties. Whether you are a site engineer or supplier looking for alternative sections based on regional availability and construction constraints, or a structural engineer looking for optimum sections in structural designs, you will find the tools and functionality that you need.
CSiRebar is a quick and convenient app that converts between combinations of bar sizes, steel area, and spacing requirements and allows users to select the required combination of bar sizes and spacing for given conversions using ASTM, Metric or Imperial standards. Engineers who need to view and select from various reinforcement layouts for a given criteria during member design, or who need to quickly get the area of steel provided in a given section during member analysis, will be impressed by its functionality. CSiRebar can generate multiple reinforcement layouts and handle user-defined rules for bar selection and user-defined ranges.


project: Fabio Revetria, Lara Sappa
Casa3 is an extension to the owners' holiday home, in the Ligurian Alps, in Ormea, on the border between Liguria and Piedmont. The building is on two levels. In ancient times, it was used as a stable on the ground floor and as a barn on the first floor. The two spaces and the ratio of voids/fills of the façade opening south towards the Upper Tanaro Valley have been kept unchanged. The large window also has the function of an alcove and seat. The upper level is left free so that it can be used as a yoga room or as a covered terrace, accessible from the back of the building through a double window that can be fully opened. The style of the internal joints was made with lime-based mortar, mixed on-site with local soil to reproduce the colour of the existing stone masonry mortar. The windows and doors are made of untreated chestnut wood to allow the natural oxidation of the surfaces.


At 10 a.m. on August 11, the raw material purification project of the first production department of Xinxinyuan company was officially put into operation, and qualified products were produced at 16 p.m. that day, marking the smooth operation of the raw material purification project.
The piling construction of the project began on March 18, 2021. The subsequent civil engineering, installation, instrumentation, fire prevention, thermal insulation and other processes were carried out in an orderly manner according to the original plan, and all construction was completed on August 5. On August 6, the first production department organized the company's leaders and process, equipment, safety, electrical instrument and other professionals to carry out the "three inspections and four determinations" of the project, further check and make up deficiencies, investigate and rectify, and lay a solid foundation for the smooth start-up and long-term stable operation of the project.
The smooth development and successful operation of project construction are inseparable from sound organization and silent project management personnel. In order to complete the project construction with high quality, with the strong support of the company's leaders, the first production department implements the overall responsibility system of the project manager and comprehensively controls the construction period. Other personnel of the project team are divided into four functions: process design, safety supervision, construction coordination and equipment installation, with detailed division of labor and clear responsibilities, so as to ensure that each link is implemented and followed up by special personnel, Effectively control the project duration and construction quality.
The investment of the project is 4 million yuan, 2 old distillation columns and 13 new equipment. As the upstream unit of raw material pretreatment, the raw material C4 is preliminarily purified to make the product meet the feed requirements of pretreatment, which not only overcomes the existing shortcomings of the raw material pretreatment device, but also with the increasingly fierce competition in the liquefied gas market, the operation of the project further ensures the raw material supply of C4 fine integration device and increases the new profit point of the device.
The project is one of the key tasks of the first operation Department in 2021. The project has come to a successful end, but it has also opened a new chapter. We will continue to carry forward the serious, real and practical enterprise spirit, summarize the project construction experience, actively promote the project transformation and contribute to the increase of income and efficiency of the company.


Beton Project was founded in June 2014 in order to grow and develop the concrete production devision of Devnya Trade.
As a division and now as Beton Project we have been working in the field of concrete mixtures production for the last 15 years and during that time we were involved in the construction of some of the largest commercial and industrial sites in the district of Varna.
The strict production control which guarantees the quality of our products as well as the competence of our team, affirmed us as a leading and preffered partner in the construction of various types of projects.
Our proffecional experience and the endless search for new challanges have led to the opening in 2016 of a new production line for high performance and ultra hight performance concrete elements.
By adding the right equipment and technology to the multi-component, multi-purpose concrete mix designes developed by our team, we have been able to achieve the needed parameters to produce a wide range of structural and decorative elements for both exterior and interior applications.


We aim to provide engineering services for all scale projects, continuously executed with high quality, safety and expertise. We strive to meet all regulatory requirements and ensure that all services offered are of optimum industry standards and latest technology.
Our vision is to become Cyprus’ most trusted engineering company providing solutions for all size projects. Our innovation and latest technological standards will set us apart, through quality and the highest of standards.
E. Violari Associates LLC is a local based MEP Consulting Engineering firm founded in Limassol Cyprus in 2010.
Our firm is committed to the highest levels of Expertise and Professional Standards and Qualified to provide full consultancy services covering Surveying, Design, Specification, Documentation, Budget Control and Supervision for a complete range of Engineering Building Services; delivering Sustainable, Affordable, Well-Designed Buildings across a variety of sectors.
Our team of Mechanical and Electrical engineers work together to offer a full array of design and consultancy services from surveys and feasibility studies through to detailed design. Our team can deliver specification and drawings using traditional 2D drawings, through to fully coordinated 3D building models with fly-through functions and clash detection analysis.
As MEP Consulting Engineers we understand our role in achieving sustainable buildings. We are fully conversant with a number of environmental assessment methods and we perform a fundamental role on projects to minimize energy use and carbon emissions from buildings both in design and operation
In addition to our MEP Engineering Services we also offer Energy Performance Certificates.
Since our inception, the company has undertaken in excess 50 building projects covering a wide range of building types including Commercial, Residential, Listed Buildings, Educational Centers & Schools, Churches, Warehouses, Industrial.


Metal Roofing is an increasingly popular option today, especially in the New York and New Jersey area. Metal roofs use sturdy galvanized steel, aluminum or copper that come in long sheets fashioned to resemble a row of shingles or tiles. There are a variety of custom panel sizes, colors and finished coatings available, making metal roofing ideal for many commercial projects and modern homes.
Benefits of Metal Roofing
Metal roofing offers a number of benefits over other roofing materials. Metal roofing is fire resistant and virtually maintenance-free. Here are some other important advantages of metal roofing:
Versatile and attractive
Can be made to look like wood shakes, shingles and clay tiles
Metal roofing is typically made from recyclable material
Can be installed over existing roofing material
Has a high endurance to the elements, providing long-term weatherability
Metal Roofing Installation
Installing metal roofing can be a significant undertaking. That’s why it’s important to hire the right commercial roofing company. Our skilled professionals are experts at installing metal roofing directly or over an existing roofing system. We will ensure your roof is installed quickly, safely and effectively, so it provides long-term performance.
Learn more about our options for New York and New Jersey metal roofing. Contact us or complete the form below for more information!


Wheel Loader Doosan S55W-V5 Manufacturer: Doosan
Four-stroke DIESEL engine, water-cooled, direct-injection
Power: 40.8 KW, at 2,400 rpm (DIN 6271 standard)
Length required: 4.00 m
Maximum digging depth: 3,495 mm
Maximum excavation height: 5,980 mm
Maximum pouring height: 4,265 mm
Bucket: inverted, capacity 0.19m3
Delivery in Hanoi, HCM
Delivery time 60 - 75 days
The machine is very new and works very well. The Doosan S55W-V5 wheel loader was produced in 2008 on the European standard S55W-V5. The machine has four double-wheeled, with a spacious cab equipped with an improved steering wheel so that the driver can easily operate and control the machine moving in the most difficult areas. .
The excavator has a length of 4 meters, a maximum digging depth of 3,495mm, a maximum digging height of 5,980mm and a maximum pouring height of up to 4265mm. In addition, the product also has bucket type reverse, digging capacity of the bucket is 0.19m3, suitable for excavate where deep foundation.
This excavator is further improved than its predecessor with intelligent hydraulic system, four-stroke DIESEL engine that is stable and stable for long hours combined with cooling system. Automatic water injection, direct oil injection, the machine can operate with very long life, fuel saving for the user, and also extremely environmentally friendly due to the improved design of the cockpit for Minimize noise during use.
Currently the product is being distributed by Vinacoma directly. Please contact us quickly to contact us to get information about this product quickly.
Information related products: http://mayxaydung.com/may-xuc-banh-lop-p27.html
All information please contact:
Vietnam Construction Machinery Development Joint Stock Company.
VINACOMA., JSC - VCM GROUP
Phone: 090 224 0369
2nd Floor, Hanoi Corporate Building, 445 Doi Can Street, Ba Dinh District, Hanoi, Viet Nam


The Children’s Railway stretches 11.2 kilometres between Hűvösvölgy and Széchenyi-hegy. The entire travel time is about 45 minutes. The following stations lie within the area of Normafa Park:
During the planning and construction of the railway, much use was made of the experience already gained from creating and operating narrow-gauge railway networks. The operation of the railway is entrusted to Hungarian State Railways and the Hungarian Pioneers Association. One goal of the railway was to provide access to the Csillebérc Children’s Camp, which was under construction at the time, and the other goal was to get children between ten and fourteen years of age interested in railways. The first two and a half decades of the railway were its golden years, as its one million visitors per year would indicate. Its later neglect was caused by a decline in political attention, leading to unresolved financial problems.
The Children’s Railway has become more popular in recent years thanks to its redevelopment and improved customer service..
Children's Ralway timetable here


Developing new foundations
Components for Floating Structures
Going forward for new foundations
Since most coastal areas are already equipped with offshore wind turbines, consideration must be given to how the wind far off the coast can be used to generate energy. As the water depth is much deeper than in coastal areas, a solution other than monopiles or jackets as foundation structures is required. Floating structures offer a solution to this problem and also allow offshore wind turbines to be installed in rough conditions.
Designs of floating constructions
There are currently various designs of floating constructions. The four most common forms are the construction of a barge, semi-submersible, a floating pile or a tension leg platform. EEW pipes can be installed in all these types of floating constructions.
Partnering up to develop new dimensions
The offshore wind market has grown enormously in recent years and the trend is still rising. As the conditions and requirements change, the demand for foundations also changes.
Following our commitment slogan GOING FORWARD, we are constantly monitoring developments in the OW industry in order to support our customers by coming up with new solutions for foundations.
The current development we are facing is the establishment of floating foundations for offshore wind farms. Several changed conditions require new solutions for offshore wind foundations. The main reason for this need is that the installation areas are being planned far offshore in great water depths.
On the one hand, this is due to the fact that most installation areas near the coast are already equipped with turbines. On the other hand, the wind at sea, far off the coast, is much stronger than in coastal regions. This means that a greater energy capacity can be generated.
So far, there is no definitive solution for a floating foundation that is suitable for most cases. To construct foundations that can withstand the rough conditions of the open sea, but can also be produced in large quantities.
As a pioneer in the offshore wind industry, we can draw on more than 15 years of experience. We supply a large portfolio of LSAW pipe that are used for various application areas. Above all, our experience especially in our point-to-point service is a great advantage for our customers.
Together, we examine and develop potential floating offshore wind structures in order to GO FORWARD in the offshore wind energy generation.
EEW Structural Pipes for Offshore Wind Foundations
Interested exchanging ideas?
Get in touch with our Sales and Technical Teams.


The purpose of permitting is to protect the health, welfare, and safety of the public through the enforcement of building standards and codes. The City of Eastland began requiring and issuing permits with the adoption of their Buildings and Building Regulations Ordinance in 1974.
Sec. 5-16. - Creation of city permit department.
The City of Eastland shall hereby create the permit department for the city. The city manager shall appoint staff to the permit department, including, but not limited to, a permit officer. The city manager or his designee shall be responsible for the organization of the permit department and supervision of permit department staff.
(Ord. No. 440, ยง I, 4-28-74; Ord. No. 663, ยง 1, 4-16-03)
Sec. 5-18. - Permit required; fine.
It is unlawful for any person to construct, modify or install any water or sewerage system within the city or to construct or modify any new or existing structure therein unless a building permit has been issued therefor in accordance with the terms and provisions of this article. Any person who violates this section shall be deemed guilty of a misdemeanor, and upon conviction thereof shall be punished by fine not to exceed $200.00.
(Ord. No. 440, ยง III, 4-28-74)
Accessory Building: A subordinate building located on the same lot as the primary building the activity of which is clearly integral to the permitted use of the main building.
Structure: A building of any kind or any piece of work built or composed of parts joined together in some definite manner. Anything constructed or erected, the use of which requires more or less permanent location on the ground or attached to something having a permanent location on the ground, including but not limited to fences, advertising signs, billboards, lighting standards, etc.
The Building Official reviews and inspects all commercial and residential building requests. All types of residential construction work require building permits from the City of Eastland’s including:
All of the above require a Permit Application. This is not an all-inclusive list. If you are unsure whether you may need a building permit, please call the Building Official at 254-629-8321 x14.
113 E. Commerce St
Hours 8:00AM - 5:00PM


NYS Senate Republicans have announced the introduction of a bill creating a new Great Lakes Flood Recovery Grant Program to help those impacted by the lake flooding this Spring.
The measure makes $55 million in grants available to property owners, businesses, farms, not-for-profit corporations, municipalities, and counties affected by high water levels in Lake Ontario, Lake Erie, Lake Champlain, and the St. Lawrence River.
The grant program would provide up to $20 million administered through the state’s Empire State Development Corporation to help with physical flood-related damage.
Grant recipients could receive up to $15,500 for owners of residences, $30,000 for owners of multiple dwellings, $50,000 for small businesses and farms, and $100,000 for not-for-profit corporations for damage not covered under insurance or an existing local, state, or federal program.
Municipalities and special districts would be eligible for a total of $20 million in grants - up to $1 million each - for infrastructure spending caused by the flooding and high water levels and not already covered under existing funding programs.
For other municipal costs that may not be eligible for that funding, an additional $10 million in grants would be made available by the state.
Counties would be eligible for a total of $5 million in new grants for flood mitigation or flood control projects costing at least $250,000, up to $500,000, and related to the recent Great Lakes water levels.


A Siphonic Roof Drain System is about half the size of a conventional system. The advantages include a material cost savings, a labor cost savings, concealed pipes with reduced or even eliminated wall furring and a savings of square footage. These systems are also installed with level horizontal pipes (no slope). This allows for greater ceiling heights, lower overall building heights, reduced coordination conflicts, minimized pipe bracing and additional labor cost savings. The system has no moving parts, uses virtually any pipe material and requires only a specialized drain that incorporates a baffle over the drain body. Overall, the system provides a reduced water depth on the roof and higher self-scouring velocities.
- Generating and managing building data during its life cycle.
- Using three-dimensional, real-time, dynamic building modeling software to increase productivity in building design and construction.
- Encompassing building geometry, spatial relationships, geographic information, and quantities and properties of building components.
Siphonic Roof Drain Projects
Arrowhead Medical Office Building, Colton, CA
Beaumont Hospital, Royal Oak, MI
BMW Assembly Plant, Greeg, SC
Caterpillar Axle Plant, Winston Salem, NC (0.5 million sqft)
Chrysler Assembly Plant, Belvediere, MI (0.5 million sqft)
Chrysler Engine Plant, Trenton, MI
Chrysler Marysville Axle Plant, Marysville, MI (0.7 million sqft)
Census Bureau Headquarters Office, Suitland, MD (1.5 million sqft)
Dollar General Distribution Center, Bessemer, AL (0.3 million sqft)
GM – LDT Assembly and Body Shop, Lansing, MI (1.5 million sqft)
GM Flint – Engine Plant, Flint, MI (0.5 million sqft)
GM Fort Wayne Assembly Center, Fort Wayne, IN (0.5 million sqft)
GM San Luis Potosi – New Transmission Plant, San Luis Potosi, Mexico
GM Assembly Plant Phase II, San Luis Potosi, Mexico
Getrag Transmission Project Bldg #3, Tipton, IN (0.5 million sqft)
Getrag Transmission Project Bldg #5, Tipton, IN
Lot #11 Hawksnest, Carefree, AZ
Mercedez Benz Body shop Expansion, Tuscaloosa, AL (0.3 million sqft)
Mosaic Parcel B, Falls Church, VA
Muir-Chase Plumbing Company Office Building, Los Angeles, CA
Nadev Printing Facility, Freemont CA (0.3 million sqft)
NRUCFC Headquarters Office Building, Loudon County, VA
Redico Dearborn Town Center, Dearborn, MI
Target Store – Houston Central, TX (Store #T-2093), Houston, TX
Target Distribution Center, Rialto, CA
Thurgood Marshall Courthouse (historic high rise), New York, NY
United States Postal Service – Expansion, Eagan, MN (0.6 million sqft)
Washington Headquarters Services, Alexandria, VA (0.3 million sqft)


Technical contribution by Peter Rosewarne Pr Sci Nat MSc BSc, Groundwater Consultant, Cape Town, to enrich the public debate about policy reform.
In this short position paper, I will set-out an inventory of the relatively well-known local aquifers and also put forward some possible additional aquifers and methods for obtaining more groundwater for the City. Groundwater storage in these aquifers vastly exceeds surface water stored in the City’s dams, even when they are at full supply capacity. Fortunately, groundwater is mostly protected from direct evaporation and takes longer to react to drought so it can form a bridging supply source in times of surface water shortage. Even with the current drought and relatively dry winter, aquifers will be nowhere near c.35% of their storage capacity, as with the City’s surface water supply dams (as of September 2017). However, groundwater/aquifers are not a panacea for the City’s water crisis and their exploitation on a large scale (volume and time-wise) is a complex issue requiring careful scientific assessment and management.
Cape Town’s “Big Three” Aquifers
The main aquifers of the Greater Cape Town Area (GCPTA) comprise of both primary (groundwater is stored and moves within original pore spaces, e.g. sand) and secondary (groundwater is stored and moves within fractures such as faults, joints and bedding planes in otherwise impermeable rock, e.g. sandstone) aquifers. The GCPTA has two main primary and one main secondary aquifer, all of which fall into the major aquifer classification of the Dept. of Water and Sanitation; basically an aquifer supporting high yielding (>5 L/s) boreholes supplying good quality (electrical conductivity or EC of <150 mS/m) groundwater. The primary aquifers are the Atlantis Aquifer and Cape Flats Aquifer (CFA) and the secondary aquifer is the Table Mountain Group Aquifer (TMGA). All three are subject to intended further exploration/exploitation by the City as part of the current drought relief effort. They are the only local aquifers where individual sustainable borehole yields of >10 L/s can be expected, hence the “Big Three” label.
The Atlantis Aquifer was initially developed in the 1970s with two production wellfields, the Witzand (c.3.2 Mm3/a) and Silwerstroom (c.2 Mm3/a) wellfields, and a system of ponds for introduction of storm water run-off and treated effluent back into the aquifer (artificial recharge). It is one of the best known/studied aquifers in the country. Biofouling of borehole screens, which causes reduced yields, is an ongoing management problem in this aquifer and requires periodic remediation.
The CFA has not been systematically developed to date and what was once a pristine landscape of sand dunes and scattered vegetation is now largely covered by various housing and industrial developments, cemeteries, waste water treatment plants and two major waste disposal sites, Swartklip and Coastal Park, the former located just about squarely on the most productive part of the aquifer. Development of this aquifer will have to take such potential impacts on groundwater quality into account and there will also be the challenge of installing and securing expensive pumping and monitoring infrastructure in a heavily populated/developed area.
The TMGA forms the catchment areas of the City’s large supply dams and my understanding is that it is proposed to pump groundwater into whichever existing dam(s) is closest to the wellfield(s) developed in this aquifer. Groundwater circulation is deep, up to thousands of metres (using thermal springs such as Brandvlei – 64oC – as geothermometers) and production boreholes will also be deep (hundreds of metres) and correspondingly expensive. The TMGA Project started in 2002 and production borehole yields of 100 L/s (3.1 Mm3/a) each were promised by the City’s consultants and used for feasibility planning purposes. To my knowledge, yields of this magnitude are only reliably obtained in one of South Africa’s few other major aquifers, the dolomites of the East, West and Far West Rand (due to the unique weathering features of the dolomite). I personally don’t think that sustainable yields of this magnitude will ever be obtained from the TMGA but will be very pleasantly surprised and very happy to have been proved wrong if they are/have been. After 15 years of work, it is high time for significant volumes of TMGA groundwater to start contributing to the City’s supply system, based on sustainable recharge estimates or possibly short-term (a few months) ‘over-pumping’ for emergency bridging purposes if surface water runs out.
It has been stated by the City’s consultants that there are billions of cubic metres of groundwater in storage in the TMGA; however, the only way to determine if a significant part of this water can be abstracted in a sustainable and environmentally acceptable manner is by pumping and monitoring; monitoring the status quo will not provide this information and so it is a bit of a catch-22 situation. Apparently a pilot wellfield abstracting 5 Mm3/a (c.14 ML/day) will be established near Theewaterskloof Dam by 2022 (this may now be out of date). This seems like a very long time to tentatively access a very small part of the billions of cubic metres apparently in storage and won’t help address the immediate water crisis facing the City.
The City intends to extract 100 ML/day (36.5 Mm3/a) from the above three aquifers as part of an “Immediate and 1st Tranche” of development, plus 10 ML/day from the TMGA. It is not clear if some or all of this abstraction will be on a “safe yield” basis (abstraction less than average recharge) or on a short-term emergency basis possibly equalling or exceeding recharge for emergency bridging supply purposes. Increased groundwater abstraction is also being planned at a time of decreased rainfall and therefore, presumably, decreased recharge to aquifers. The creation of increased storage space in the TMGA by pumping may also affect run-off into storage dams but presumably these water management issues have/are being looked into by the City.
Additional Aquifers and Abstraction Methods
Some additional aquifers/abstraction methods that don’t seem to have been included in discussions so far include:
• The Newlands Aquifer;
• The Malmesbury Group aquifer underlying both the Atlantis Aquifer and CFA;
• The Colenso Fault;
• Boring of inclined tunnels into the TMGA;
• Non-conventional groundwater recovery along sandy coastal areas; and
• Recovery of upwelling groundwater offshore.
The Newlands Aquifer was discovered by the writer in c.1992 while carrying out drilling and testing of production boreholes at the South African Breweries site in Newlands. Apart from well-known strongly flowing springs, the area was found to be characterised by high yielding boreholes at a number of schools. There were plans to carry out further investigations and development of this aquifer but, apart from people recently being encouraged to fill up with spring water for home use, not much more seems to have happened (?).
The Malmesbury Group rocks are usually considered to form a largely impermeable base to the CFA and Atlantis Aquifer. However, where fracturing is present in these rocks they can form important aquifers in their own right. Good examples of this occur in the Philippi area where numerous high yielding boreholes, whose water is used for irrigation, tap the Malmesbury Group aquifer beneath the CFA. Another example occurs near Koeberg Nuclear Power Station beneath the Atlantis Aquifer and sustainable yields of up to 6 L/s were obtained from boreholes drilled through the sands of the latter into the Malmesbury Group rocks (Nuclear-1 EIA report). Further work is warranted to better define the productive area and yield potential of this aquifer type, which could be combined with the proposed expansion of the Atlantis Aquifer. This could possibly then be known as the Atlantis Aquifer System and CFA System.
The Colenso Fault is a major structure running for c.150 km from the Stellenbosch area north-west towards Saldanha (hence also known as the Stellenbosch-Saldanha Fault). It comprises of composite fault planes diverging and coalescing, cutting rocks of the Malmesbury and Klipheuwel groups. Drilling and testing in the Riverlands and Kalbaskraal areas along the fault zone have shown the presence of a high yielding aquifer with sustainable borehole yields in the 4 to 7 L/s range with EC of <150 mS/m. This aquifer could be further developed for water supply to the Malmesbury, Abbotsdale and Kalbaskraal communities. Evidence of similar high yields have been obtained along the sub-parallel trending Piketberg-Wellington Fault, e.g. at Pearl Valley Golf Estate (these areas may not be directly relevant to the City’s water issues but a lessening of demand from these areas could free-up water from other sources).
Exploitation of the TMGA is usually by means of boreholes of varying depth (usually >150 m) and diameter, plus natural flow from thermal springs such as at Citrusdal, Goudini, Calitzdorp and Brandvlei. A further methodology could be the boring of inclined tunnels into the aquifer that could follow favourable aquifer features. Examples of a tunnel producing large volumes of groundwater, albeit that wasn’t the reason for its construction, is the Orange River Tunnel (Karoo Aquifer). Intersection of a major fracture zone resulted in flooding of the tunnel with a flow of c.900 L/s. I don’t know if this methodology has been considered in the TMGA Project.
A further idea for potentially significantly increased groundwater abstraction that does not seem to have been addressed thus far is a specially designed and managed non-conventional groundwater recovery system. This would be installed parallel to and above the high tide mark, that could capture the groundwater that is being naturally lost from aquifers as it flows into the sea. A theoretical estimation of the water that might be recoverable by this method from the CFA, just along False Bay, compares favourably to other proposed augmentation schemes. What is also attractive about this potential water supply is that this water could be conveyed to the relatively close-by existing Faure water treatment plant or Lower Steenbras Dam. Although comparative development costs are not yet available, I expect them to be favourable.
This short tour of the GCPTA aquifers concludes with an unconventional groundwater harvesting methodology involving capturing of groundwater upwelling at subterranean spring sites offshore. Technology has been developed for this and is in use at many sites around the world. Whether any favourable such sites exist around the Western Cape coast is unknown at this stage.
Investigation of at least some of the above additional groundwater sources could lead to the relatively quick addition of significant volumes of water into the City’s supply system, in addition to that already planned. This has additional significance given that the City’s estimates of augmentation volumes achievable within the required time scale have recently been called into question by their own consultants (on the basis of time constraints rather than recharge constraints as I understand it).
An assessment of the current ‘private’ groundwater abstraction (and likely numerous pending borehole installations) from within the GCPTA is also an urgent priority, if it hasn’t already been done, which should be compared with estimates of sustainable abstraction.
I have been punting the use of TMGA groundwater by the City (and e.g. Port Elizabeth) since the 1990s but in those days kept coming up against a proverbial dam wall. Our dams would fill up again after a period of drought and groundwater development would be shelved. Now the City is looking at developing three aquifers at the same time (plus other sources), with high rainfall unlikely to come to the rescue anytime soon and an integrated water development and use plan sorely needed. Perhaps there is one. Then I look at our household water bill and wonder for how much longer we can afford to so greatly undervalue this scarce and essential resource.
Peter Rosewarne Pr Sci Nat MSc BSc
Groundwater Consultant. Cape Town


Monforte d’Alba Piemonte
The structural idea of the project comes from the need to respect the language of the Langhe on the outside, and the desire to develop new spatial research in the inside.
The structure thus becomes the load-bearing skeleton of the building, and above all the element through which the space is generated and divided.
A large pitched roof in concrete generates two canopies, and is supported by inclined steel pillars, by the canopies themselves and by bodies that contain the vertical elements, such as the elevator and the physical plant systems.
The horizontal forces are balanced by the related parts of the inclined pillars and by three perimeter partitions, with different orientations, that extend to the lower level, where they convey the load down to the foundation.
The basement level contains the continuation of the sloping steel pillars in similar vertical concrete pillars.
The roof is thus the starting point for the entire project, marked by the presence of a ridge beam and the torsional resistance provided by the underlying system of concrete shells that form the canopies, boxed elements capable of organizing the space below and containing secondary spaces.
The canopy that extends lengthwise is spaced by the presence of four concrete diaphragms, which stiffen the zones of connection between the horizontal structure of the roof-canopy system and the vertical structure that supports it. The two pediments placed at the extremities of the roof are broken down and shifted on the various levels, corresponding to the planes of positioning of the diaphragms.
The uphill pediment vanishes in the left part of the pitch, permitting the creation of a large sheltered but open space, with the function of an area for the delivery of the grapes. The downhill pediment, instead, is structure on three levels and contributes to support the roof pitches.
The ground floor volume is bordered by continuous glazing, at a height varying between 2.2 and 2.7 meters, depending on whether it is below the pediments or edged by the pitch itself. It is a curtain conceived as an independent part that divides the heated space of the ground floor from the outdoor sheltered space.
Its flexibility, dictated by the structure of the roof, permits the creation of passages and terraces of various proportions. The inclined pillars inside this volume have a slope dictated by the need to connect the regular grid on the semi-basement level with the most suitable points to provide support for the roof-canopy system


Top Civil Contractors in Pashan Pune
PS Home offers expert civil contracting services with our team of top civil contractors in Pashan, Pune. We are committed to providing quality construction work for your dream home, and our skilled team ensures that the project is completed on time and within budget.
We use only the highest quality materials and proven process to ensure that the construction work is durable and long-lasting. Our team of expert technicians ensures that the construction process is smooth and hassle-free. We also provide support and guidance in obtaining permissions and approvals from authorities.
So why wait? If you're looking for top civil contractors in Pashan, Pune, contact PS Home today! We offer competitive pricing and exceptional customer service, and we're committed to helping you build your dream home with quality construction work.


ALL PRICES £ EX-WORKS, EXC. V.A.T.
The 20 Series range of Flat Bed Trailers are built to last, with a heavy duty drawbar arrangement developed from our larger trailers, with a Cast Locking 50mm Ball Coupling and Spare Wheel & Tyre as Standard. A 40mm Eye Coupling is also available, as a no cost option.
The durability of our heavy duty, low maintenance rubber torsion axles has been proven in the Construction Plant industry and it has excel-lent ride characteristics to cope with operation in both laden and unladen conditions.
The 20 Series Trailers are all Hot Dip Galvanised to the highest quality, and the Floor of the trailer is made from 18mm high density plywood with a tough, slip resistant waterproof resin coating on both sides.
Product Price : £2,995.00


New highway bridge going up across the West River in Brattleboro
The new span will take the place of the two rusting bridges that used to be there, one of which remains and is currently handling traffic in both directions.
The project seems to be going exactly according to plan, but it does make a person think about scale… This bridge is estimated to cost more than $60 million. People in Brattleboro are really agonizing over a budget shortfall of less than half a million this year.
Leave a Reply


|Object Name||Print, Photographic|
M.V.T.I. inventory of buildings and structures in 1962. Formerly Building T-55 at Fort Preble.
Building T-55 had been Barracks #6 with a capacity for 63 men. Building construction was completed on February 15, 1941 at a cost of $9,980. Concrete foundation, wood walls and floor, roofing paper on roof.
Maine Vocational Technical Institute
Forts & fortifications
|Site Name||Southern Maine Community College|


Non Slam Slow Closing Swing Check Valve Price with Counter Weight
NON SLAM SLOW CLOSING SWING CHECK VALVE PRICE WITH COUNTER WEIGHT
This kind of check valve is a safety device mounted in the pipeline or pump outlet to prevent the pump from inversed running due to the water hammer's shock produced in the side-flow of the medium when the pump stops. And it features by the light flap, big opening, notable power saving, small fluid resistance, new-style of water hammer removal mechanism's design, stable and reliable seal performance, wearable, long duration, stable running, without vibration and noise etc.
The valve is suitable for the pipeline related to the systems of water supply and drainage, fire-fighting, warming etc. Or the pump outlet to prevent both pump and pipeline from being damaged due to the water hammer produced in medium's back-flow.
1.Light valve disc, opening in big way, the remarkable electricity saving, low flow resistance
2.The design of water hammer elimination is novel
3.The sealing is stable, wear resistance, long service life, no vibration, no noise.
|Body||Gray iron, ductile iron, cast steel|
|Gate||Ductile iron+EPDM or NBR|
|Allen bolits||Carbonization process|
|Bonnect||Gray iron,ductile iron,cast steel|
|Thrust bearings||Tin bronze|
|Bolt||Carbon steel,ally steel|
|Gland||Ductile iron,cast steel|
|Hand wheel||Malleable iron|


Evaluation of Liquefaction Properties of East Coast Sand of New Zealand Mixed with Varied Kaolinite Contents Using the Dynamically Induced Porewater Pressure Characteristics
Kalatehjari, R; Bolarinwa, A
MetadataShow full metadata
In earthquake geotechnical engineering, physical model experiments have proven to be significant and valuable in understanding the complex physics and engineering behaviors of prototype undrained soils in fields. An executed literature review indicated that large-scale physical model testing, such as shaking table (ST) and centrifuge devices, have associated advantages and limitations. The current paper presents the design, fabrication, and calibration of a 600N-capacity, small-scale, one-directional (1-D) laboratory ST device that enables quick and valuable assessment of soil liquefaction mechanisms. The dynamically induced porewater pressure (PWP) generation characteristics of sand soil mixed with different percentage weights of clay were evaluated and illustrated as a case study for testing the ST device’s performance. The east coast sand (ECS) of New Zealand’s North Island was mixed with different percentages of kaolinite clay to produce five variants of ECS (00, 05, 10, 20, 25, and 30). Three input sine wave ground motions of a constant frequency of 10 Hz and amplitudes of 2, 3, and 4 were applied and classified in the current study as low, intermediate, and moderate ground motions, respectively, to evaluate the evolution of the dynamic excess pore pressures in the soil samples. The results indicated that the clean ECS and mixed samples with lower clay content (ECS00, ECS05, ECS10, and ECS15) produced the highest excess PWP throughout the three shaking cycles, with higher tendencies of contraction and liquefaction properties. On the other hand, soil samples with a higher percentage of clay (ECS20 and ECS20) yielded the lowest PWP, with softening and dilative properties.


The railway sector is a critical aspect of modern transportation and commerce. The safe and efficient operation of trains, along with the maintenance of the vast network of tracks and infrastructure, is essential to ensure the smooth functioning of the railway system.
One key tool that plays a crucial role in this effort is cutting tools.
Cutting tools are used in a wide range of tasks within the railway sector, including
- Maintaining and repairing rail tracks and locomotives;
- Clearing vegetation and debris from tracks;
- Creating drainage ditches and trenches;
- Cutting and shaping new rail ties and steel for construction of bridges and tunnels;
- Maintaining and repairing signal systems and other electronic equipment;
- Manufacturing and assembly of railway equipment.
These cutting tools are critical for ensuring the safe and efficient operation of the railway system, and play a key role in maintaining the infrastructure and keeping trains running on schedule.
They are used for cutting and shaping rail tracks, removing old tracks, and cutting and shaping metal parts for repair or replacement. Cutting tools are also used for drilling and tapping holes in rail tracks and other parts of the railway infrastructure.


Capillary Tube System
The capillary tube system is the next generation of aquiferous surface heating and cooling systems for integration into construction elements such as flooring, walls or ceilings. This makes heat transfer possible over a large surface. The heat emission during the heating mode supplies a comfortable radiant heat. The heat absorption in the cooling mode supplies an effective and comfortable silent cooling.
The tube spacing makes the difference, when it comes to temperature dissipation within the construction element and its surface. The spacing also determines the efficiency of the total heating and cooling capacity transferred. The smaller the tube spacing the more capacity can be achieved. Due to closely tube spacing of the capillary tube system as well as the parallel arranging of the tubes for supply and return, the required heating capacity can be transferred using especially low heating temperatures and the required cooling capacity is transferred using especially high cooling temperatures. The capillary tube system is, therefore, the most efficient surface heating and cooling system with high radiation and increased capacity potential.
Capillary tube system can produce more capacity than thick tube meanders. And, this is done using low flow temperatures. It also has a greater exchanger surface. All of which is explained using the following specifications:
Heating Height of Assembly/Diameter Tube Spacing Flow temperature Capacity W/m²
Thick tube meander * 16 – 20 mm approx. 150 mm 35 °C – 40°C 40 - 50 W/m²
Capillary Tube Mat* 3.6 – 4.5 mm 10 – 30 mm 28°C – 30 °C 80 - 100 W/m²
*Example underfloor heating. Values differ from type of building and flooring.
Quick preheating is an advantage of the GeoClimaDesign systems compared to the thickly covered thick tube meanders. This system function is influential especially within multi-functional rooms such as communal rooms or combined bed and living rooms as well as for rooms with a lot of natural light. The capillary system is the ideal parquet and/or floor board heating system for thick high-quality wooden floors because of low system temperatures required and its consistent dissipation. Any plaster can be used in perfect combination with the capillary tube system and can be thinly and easily applied. The even heat dissipation and the low delta T between the ambient air and the system temperature make it the perfect in-plaster heating. Constructors who work with loam are specifically fascinated by the capillary tube system because of how the hygroscopic properties ideally support the loam rendering.
For more see: Heating & Cooling


A plan by London based McAdam Architects designed in teamwork with Russian practice Ginzburg Architects is shortlisted in a competition for the design of Sputnik. This will be a 40,000 sqm progress constructed in a Black Sea resort Sochi; cost of the project is probable at the £75m. The two 19 storey towers will serve as a new landmark for Sochi, overlooking the main harbor and a port. As a mixed use development Sputnik will include retail and entertainment area as the towers will house 220 apartment units.
Post Footer automatically generated by Add Post Footer Plugin for wordpress.


If you're thinking "what is an FRP coating" or "what is an FRP lining" This article should assist!
FRP Coatings & Linings (Fibreglass Reinforced Plastics) is a premium coating and lining system that is formed by thermosetting resins and fiberglass that increase durability and security by the lining of pipes, Chemical storage tanks and cooling towers, and various types of industrial equipment for processing.
In many applications, FRP coatings provide greater performance over the other coatings. If a polyester resin is employed together with fiberglass the lifetime of the coating is extended and is more resistant to corrosion.
GRP Coating GRP Coating method is a distinct place in comparison to other insulation options and proves its superiority by using a hand-lay-up technique by using exclusive roller brushes. This kind of hand-held FRP coating technique is suitable for use in the field in a safe manner and requires greater chemical acid and corrosion-resistant.
FRP Lining is a resin lining used to increase the safety and durability of a tank by lining the interior of steel tanks as well as water tanks storage tanks and cooling towers using FRP (Fiberglass Reinforced Plastics).
It is strong and durable and is unaffected by structural defects that can happen. When the FRP liner is completed the tank will have similar strength to an FRP coated tank fitted to the inside.
The material is a room-temperature-curing type and is applicable for on-site lining and large-sized tanks.
Our FRP Lining and Coating that we make is widely used in the industry for a range of uses. FRP offers several benefits that make it ideal for hostile and unfriendly conditions in an industrial setting It is weatherproof, non-corrosive, fire-resistant, and impact resistant. FRP is also immune to chemical corrosive substances (free from environmental, acidic as well as acidic corrosion). That's why tanks used for the storage of chemical substances are lined using FRP. FRP is also leakproof and corrosion-resistant. The material is perfect to make roofs and linings for tanks made of steel. The FRP linings OJB FRP offers for industrial uses can withstand harsh conditions. Our FRP linings are of excellent quality and can be purchased at a reasonable price.
To provide properties such as chemical resistance, resistance to leaks, or UV proof FRP coatings and linings are typically applied to an original substrate like concrete, different kinds of steels, PVC PE, PP, PVDF, EPS, or any other kind of thermoplastic. Underground steel tanks need an external barrier to shield them from acidic or weather-related environments. The FRP raw material used for lamination of lining and coating will depend on the location's conditions or the specifications of the customer.
OJB FRP provides FRP Coating & Lining all needs of your taken care of. We are able to proudly install FRP linings on tanks of any size for public works cooling tower industries as well as other places which require storage tanks. We can reduce your costs with our FRP coatings and liner, please contact Us at (+91 9810307179).


A multi-functional sport and community complex, establishing a recreation and sports hub for the growing community
The centre replaces an aging facility, tripling the current building footprint with a new two storey building that houses sporting facilities for football, rugby, tennis, cricket, basketball, netball, volleyball and badminton.
Including clubrooms and changerooms for oval and court sports, multi-function spaces and two indoor multi-purpose courts, the development also includes two outdoor tennis courts, three retractable cricket nets, facilities for the local dog club and a new carpark. The integration of a community centre replaces the previous Mitchell Park Neighbourhood Centre, activating the site throughout the daytime to deliver a wide range of community programs.
Drawing inspiration from the sites history as an orchard, the concept explores the ideas of grafting and lifecycle of stone fruit, translated into the built form through curved lines, colour graded screens and a strong response to the surrounding context.
Early stages of the project involved a high-level of stakeholder consultation to consider the needs of all existing and potential user groups, ensuring the new facility serves the community’s broad recreation and sporting needs. The inclusive facility caters to the vast range of cultural, economic and other demographics of the greater community. A high focus on accessibility has been incorporated to accommodate both able and non-able-bodied patrons of all ages.
The centre is the first project to utilise a new wall cladding profile as part of a series designed by S9, aptly named NINELINE.
As the catalyst project to trigger the design of the NINELINE Series, the profiles provide Architects with alternative wall cladding solutions. The innovative profiles are particularly suitable for large-scale facades, such as on sport and recreation projects, where a traditional single, cost-effective prefinished material is often used.


UAVs are a perfect complement to Surveyor’s work. UAVs can be used to reduce hazards and increase profitability of projects by eliminating a lot of the redundant man power.
The benefits of using survey-grade UAVs for surveying large parcels of land (those ranging 10-100 acres in size) cannot be emphasized enough.
“You won’t get this kind of imagery and detail from a LiDAR system,” argues Jess, the Canadian surveyor who is using UAV technology for surveying routinely. “A point cloud is much more efficient than a ground survey,” he says, adding that the introduction of UAVs offers surveyors a new technique for cost-effectively and efficiently acquiring data for medium- to large-scale projects that require surface models, such as mine sites, quarries and construction sites with earthworks.”
The full article can be found here.


Our versatility means that we can work on projects to your bespoke requirements.
Rather than compromise, provide us with your specifications and we will manufacture something just for you!
Example Project 1
An example of our project work includes the manufacture of a bespoke market stall to house an event bar.
FYI - the photograph is of the bar in use at Huddersfield Food Festival in August 2019.
Example Project 2
We were proud to be chosen to take on this steel project for a Bristol shopping centre. It involved a 60ft santas grotto structure which had to be rebuilt to meet new standards.
Farnsworth Fabrication Ltd worked closely with many companies to complete all manner of fabrication tasks.
Whether it is a quick call-out repair or machine guard design and fabricate job, you can rely on us to carry out the task.


Da Vinci High Performance Classroom
- none -
The Da Vinci High Performance Music Classroom is a revolutionary, LEED® Platinum Certified building in Portland, Oregon that showcases the latest innovations in green construction. As a Renewable School, Da Vinci is building a dedicated community of renewable energy educators to help inspire the next generation of clean energy leaders.
More than one hundred fifty 32-Watt Solar Save tiles made by Open Energy are integrated into the roof and wired to an inverter on the building. When combined with a smaller, stand-alone photovoltaic (PV) system already located at the site, these two solar systems generate 6.3-kilowatt-hours of energy—or enough to provide the 1,490 square-foot building’s electricity needs—making it the first Portland Public School building able to attain Net-Zero energy consumption status.
This building houses a music room, two practice rooms and a small recording studio. It boasts an innovative design that incorporates natural ventilation and day lighting, a high thermal mass due to thick walls and venting at night to regulate heating. It is built with non-toxic, environmentally-friendly building materials and processes. An artistic storm water management system connects to an adjacent rain garden. The building was designed as a showcase of technologies for future district renovation and new construction projects thanks to more than $100,000 in design, construction and consulting services were donated to the project by the community. The classroom was a 2007 recipient of the City of Portland Office of Sustainable Development's Green Investment Fund.
In 2009, educators at Da Vinci received a customized renewable energy teacher training, hands-on science kit materials to augment the school's existing curricula, and complete access to the resources available on the Solar4RSchools.org website.


Diesel concrete pumps are some of the most beneficial construction equipment currently available. Almost all types of construction projects utilize concrete pumps. Unlike electric concrete pumps, diesel concrete pumps will not be limited from the source of power. They rely on the combustion of fuel, hence, they may also be used even just in the most remote locations where there is not any source of electricity.
If you are running a small-scale or large-scale commercial or residential property, a diesel concrete pump will significantly improve the effeciency and ease of any project.
Diesel concrete pumps have a superior pumping power meaning they can pump concrete for too long distances vertically and horizontally. Get more related info here.
By using one of these brilliant machines, you may realize a substantial decrease in costs, when it comes to labor and materials. The past ways of conveying concrete, for example wheelbarrows and buckets, relied on human labor and they posed numerous health risks. The usage of cranes was also slow and ineffective.
Inside the construction industry, how fast you are able to deliver quality projects has an impact on your reputation and marketability. By using a diesel concrete pump, you can actually increase the speed of concrete conveyance, therefore, you raise the overall speed of your project.
Concrete pumps also aid to boost the accuracy of concrete pouring. Consequently there are actually less spills and material wastage. Read more at this page.
Considering each of the above advantages it is clear to see why the interest in concrete pumps are at all time high. They have helped to revolutionize the development industry.
Unique Attributes of Diesel Concrete Pumps
1. Excellent Performance
A diesel concrete pump is definitely the only form of pump that guarantees stable and reliable performance in by far the most tough conditions.
2. Utilizes Advanced S-valve
This valve automatically compensates for wear resistance and has a great performance.
The s-valve helps you to avoid concrete congestation.
3. Reverse State Pumping
Reverse state pumping is incredibly effective when dealing with congestion and whenever pausing for any bit to wait for materials.
The concrete pump along with its components are constructed with high wear-resistance materials. The pump can withstand great impact mainly because it operates inside the construction site, therefore, it can work continously uninterrupted for long time periods.
The highly durable materials also suggest that the pump is cheap and straightforward to keep up.
5. Remote Device Function
It is without saying that operating construction machines may be risky and complicated. However, with all the inclusion of remote control funtion, it will help to enhance the security and convenience of the diesel concrete pump. Learn further here.
Workers can operate the pump from your further distance more conveniently.
6. Automatic Lubrication and Cooling System
Cooling and lubrication is important for vital areas of construction equipment.
The diesel concrete pump employs a computerized lubrication system which ensures adequate lubrication because the pump is within operation.
Furthermore, it features a powerful air conditioning which makes certain that heat is dissipated from the hydraulic system, hence, it remains in a normal functioning state.


Pressure pump 1200w house & garden POWXG9565
This impressive 1200W garden pump effortlessly pumps water at a flow rate of up to 3800l/h and guarantees a fast and convenient irrigation. It can draw water from your rainwater tank at a maximum suction depth of 7m and can deliver it at a maximum pressure height of 48m.
In order to protect the POWXG9565 from dry suction, the machine is equipped with a protective device providing an automatic shutdown in case there is not enough water supply. Furthermore, he has a built-in filter and an automatic controller. The pump will automatically turn on when a tap is opened and shut down when the tap is closed. With this Powerplus garden pump you’ll be sure of a durable tool.


Ashlea + Martin, Designer Concrete Supplies Ltd - Working with Architects and Designers
Ashlea and Martin from Designer Concrete Supplies Ltd. in the United Kingdom join BG and Jon for a discussion about rhetoric, hands-on demonstrations of Kodiak Pro on both sides of...Read more
BG + Jon, Kodiak Pro - Focus. On. The. Fundamentals.
It’s been a couple of weeks since the last episode of The Concrete Podcast. In that time, Jon came down with a bug, and BG has been packing up the...Read more
BG + Jon, Kodiak Pro - Siliconing Concrete Form Trick and Silicosis Free Concrete
In this short episode of The Concrete Podcast, BG and Jon discuss making samples, a trick for siliconing the edges of your concrete forms, silicosis free concrete mix development, and...Read more
BG + Jon, Kodiak Pro - PPE, Calculating Mix, Sealer Tricks, Inlays, and Large Format Tile!
This may be the most information packed episode of The Concrete Podcast, ever! In this podcast BG and Jon discuss: Silicosis and PPE in the concrete industry How to calculate...Read more
Jake Brady, Jake Brady Concrete By Design - Harder, Thicker, Longer… Easier?
What is a concrete countertop? Does concrete colored paint qualify? Brandon and Jon debate the merits of the authenticity of materials, then Jake Brady hops on to the podcast. Jake...Read more
Buddy Rhodes, Buddy Rhodes Concrete - TANSTAAFL and Supporting your Concrete Buddies
Jon and BG discuss mold releases, TANSTAAFL (there ain’t no such thing as a free lunch), and Momma says H2O is better than Haterade™. Then the Concrete OG himself, Buddy...Read more
Vince Cathcart, VC Studio Inc. - Sculptural Concrete and the Difference UHPC Makes
BG and Jon catch up, and then jump on the phone with Vince Cathcart in Puyallup, WA. Vince is an OG concrete gangster, he’s been pushing the limits of concrete...Read more


The Active Chilled Beam system works on the principle of using a chilled water heat exchanger installed in a terminal in the ceiling to cool the occupied space. The system uses primary conditioned air introduced through the chilled beam terminal for ventilation and humidity control and to create the induction of room air through the terminal heat exchanger using special air nozzles.
The system provides substantial energy savings because it uses relatively high chilled water temperatures in the terminal heat exchanger, typically 15 deg C supply water, resulting in large savings in first cost and the running costs for of the system water chillers. It also allows the heat exchanger in the room chilled beam terminals to operate without condensation thereby avoiding the maintenance and hygiene issues associated with the condensate drainage from other terminals like fan coil units.
There are further large savings in fan energy required to move air around the building because the system does not rely on air to offset the cooling loads and therefore the amount of air used can be reduced to only that needed for ventilation, humidity control and to operate the nozzles for the induction process.
The active chilled beam system has become very popular in Europe due to its energy saving capability and also because the amount of air flow required is much reduced compared to other systems that rely on air for cooling the room. This results in excellent air quality and also makes the system very suitable for hospitals and medical facilities which want to eliminate re-circulated air.
Starec has a complete range of active chilled beams with 2 way and 4 way air discharge, with nominal widths of 300mm and 600mm to suit most ceiling configurations. Unit lengths are available from 600mm to 3000mm.


On Monday the last known missing person’s body was pulled from the water where the Minneapolis Interstate 35W bridge once stood. Gregory Jolstad was a 45 year old construction worker that died in the collapse. He was part of the bridge’s resurfacing crew. The official death toll now stands at 13.
The bridge collapse has raised a lot of questions and concerns about bridge construction around the country. Many of the victims of the Minneapolis bridge collapse are looking for answers from those in charge of the maintenance and safety of the bridge but are not getting the answers they would like. People injured in the collapse and families of those killed may have a right to recover against the city and others in charge of maintaining the bridge. If you or someone you know was injured or killed as a result of the bridge collapse, contact an attorney to find out your legal rights.
For more information on this subject matter, please refer to the section on the Minneapolis Bridge Collapse.


ARCAT is the leading online resource of FREE building product information. No registration is required. ARCAT offers a wide variety of tools for the AEC community. They have the most extensive and up to date specification library.
The ARCAT app helps architects, engineers and contractors in the productivity of the design build process, from design to construction to facility management.
ARCAT has the most extensive and up to date building product information including libraries for CAD Details, BIM content and specifications. Over 11,000 listings of building product manufacturers with contact information including addresses, phone numbers, website links and links to send e-mails on the go. Hundreds of these manufacturers have populated their profile with extensive building product information including specifications, CAD Details and Building Information Modeling.


Project: ForestValue Hardwood_joint: Innovative joints in hardwoods
The overall project objective is to foster high-performance hardwood structures in the European building sector by developing economic, reliable and innovative joint technologies for hardwood members and the design thereof. The objective is to pave the way for using more hardwood products in the building industry by giving added value to hardwood species which are currently mainly used as fuelwood.
About the project
Project manager Thomas K. Bader Project members Michael Schweigler Participating organizations Linnaeus University, Karlsruhe Institute of Technology, Graz University of Technology, Ecole Nationale Supérieure des Technologies et Industries du Bois Financing organization Vinnova, Energimyndigheten and Formas (ForestValue, European Commission) Timetable February 2019-January 2022 Subject Building Technology (Department of Building Technology, Faculty of Technology)
More about the project
The existing hardwood stocks in Europe’s forests are increasing, making them a significantly underutilised potential. Hardwood lends itself to high volume use in engineered structures. However, efficient mechanical joints for hardwood structures are widely missing which prevents the effective and economical use of structural hardwoods. To overcome this barrier, economic, reliable and innovative joint technologies for hardwood members are developed and design rules are derived.
Numerical calculation of load and deformation properties of connections in hardwood are expected to enhance our understanding of the load transfer in hardwood joints. Based on findings of numerical modeling, engineering methods for an efficient and economical design will be developed.


MBE Construction Ltd are proud to be shortlisted for the 2019 RICS Awards in the Community Benefit category for the recently completed Rivacre Vauxhall development in Ellesmere Port.
The RICS Awards showcase the most inspirational initiatives and developments in land, real estate, construction and infrastructure. They celebrate the achievements and successes of RICS professionals and their impact on local communities.
Across eight individual categories, the awards are regarded as the premier property and construction awards in the country, celebrating the most innovative projects in the region and their impact on local communities.
Development in partnership with Adactus Housing Association


The Union Minister, Dr Jitendra Singh, launched the Heliborne water survey technology on 7 October 2021. It was developed by CSIR- NGRI, Hyderabad, for groundwater management. The state-of-the-art technology, Heli Survey Technology, is used to map groundwater sources in arid regions of the country. The survey will help in using groundwater for drinking purposes. This is a 150 crore project in collaboration with the Ministry of Jal Shakti as a part of the National Aquifer Mapping Project. The project will help the Prime Minister’s goal of “Har Ghar Nal Se Jal”, which means drinking water supply to every household and doubling farmers’ income.
National Aquifer Mapping Project
The National Aquifer Mapping Project (NAQUIM) is implemented by the Central Ground Water Board (CGWB). It was initiated as part of the Groundwater Management and Regulation Scheme to characterise the aquifers (water-bearing formations) and format groundwater management plans. It envisions mapping of aquifers, their characterisation and development of Aquifer Management Plan to assist sustainable management of groundwater resources. Aquifer mapping is a scientific process. A combination of geologic, geophysical, hydrologic and chemical field and laboratory analyses is applied to characterise the quality, quantity, and sustainability of groundwater resources in aquifers.
Developments in various parts of the country have led to a depletion of groundwater resources. One of the sustainable groundwater management is systemic aquifer mapping. It will help to monitor and implement national policies to conserve groundwater resources. There is a total mappable area of nearly 25 lakh sq km, and aquifer maps and management plans have been prepared for a spot of almost 11.24 lakh sq km in various parts of the country. According to the groundwater resource assessment done by CGWB and State groundwater departments, 1186 assessment units in the country are categorised as over-exploited, of which aquifer mapping has been completed in nearly 75% of Units.
Heli-Borne Survey Technology
The heli-borne survey maps underground water sources in the arid regions to provide safe drinking water for millions of people. The Hyderabad CSIR and National Geophysical Research Institute (NGRI) have managed the High-Resolution Aquifer Mapping & Management in Arid Regions of North-Western India to increase the groundwater resources. The heli-borne geophysical mapping technique provides high-resolution 3D images for sub-surface up to 500 meters below the ground level. The states that are included in the survey are Rajasthan, Gujarat, Punjab and Haryana. The survey began at Agolai Village, Jodhpur, on 6 October 2021.
The main advantage of the Heliborne geophysical survey is that it is fast, precise, highly data-dense, and economical. This survey will be implemented in two phases. The first phase covers an area spanning 1 lakh sq km. This includes 65,000 sq km in eight districts of Rajasthan, 32,000 sq km in five districts of Gujarat and 2,500 sq km in two districts of Haryana.
The heli-borne survey will help cover larger areas to obtain more accurate data to help use groundwater for drinking purposes. It will help water conservation, identifying new places for groundwater recharging at a lesser cost than the prevalent ones like digging tube wells using geophysics and remote sensing techniques. It will help in organising new schemes for improvement in water level in water scant areas.
The hot arid regions in India include Rajasthan, Gujarat, Punjab, Haryana, Andhra Pradesh, Karnataka, and Maharashtra. It covers almost 12% of the geographical land in India, and around eight crore people live in these arid regions. Rajasthan has one of the largest cattle populations, which requires a lot of water. These regions have scarce natural resources and an inhospitable climate ranging from -2 to 48 degrees celsius. Rainfall differs from less than 100 mm to 400 mm and is highly unpredictable. Therefore, there is an acute shortage of water in these areas. Pollution of surface water and groundwater from both human and animal waste has threatened public health since these water bodies are often used as drinking water sources. These states usually use canals to transport water, however, 20- 30% of this water are lost due to unwanted seepage. The Heli-borne survey technology will enable people to have better access to safe and unpolluted water for their use. The survey can assess the quality and quantity of water from existing and new sources. This will help them to manage the water sources in a better way and will be able to find freshwater sources at less cost.


Background on the Industry Transformation Agenda (ITA)
The Industry Transformation Agenda (ITA) was initiated by BRANZ in early 2017 and is a framework to bring about ambitious and meaningful change to New Zealand’s building and construction sector through real collaboration between all industry players.
It is based on the work of the World Economic Forum, which developed a global transformation agenda World Economic Forum for the construction sector.
Initial work has been led by BRANZ CEO Chelydra Percy together with Matt Crockett (Fletcher Buildings), David Kelly (Registered Master Builders Association), Connal Townsend (Property Council New Zealand) and Warwick Quinn (BCITO).
Build Magazine article (issue 162, page 8)
This group tested its early ideas with industry via a survey and workshop. In August 2017, the ITA concept and framework was then presented to Constructive 2017, the New Zealand construction forum attended by 220 industry participants. An overwhelming mandate was obtained to proceed with the ITA.
The ambition of the ITA is for the building and construction industry to work collectively to solve complex issues - such as skills shortages, boom and bust cycles and procurement issues - to enable a better built environment for New Zealanders.
It calls for long-term commitment but the industry is not starting from scratch. Some innovative developments are underway that have informed the ITA framework. A core focus of the programme will be gathering data on solutions that already exist to share them across the industry.
The ITA has three streams of work:


National Weather Service (NWS) employees must make forecasting decisions on a daily basis. These forecasts are important to save people’s lives and property. One area where the NWS has very little guidance is flash flood prediction. A GIS project was undertaken to create a preliminary flash flood potential index map for the state of Indiana to help weather forecasters issue more accurate flash flood watches and warnings. In this project, slope, soil type, land use, and forest canopy layers were used to create an index map for flash flood potential.
Bentley, Evan, "Mapping Statewide Flash Flood Potential Index (FFPI) in Indiana" (2011). Symposium on Undergraduate Research and Creative Expression (SOURCE). 28.


P 320 Punch roof windows profile
Roof window profile punch for preparing roof window profile for installation on all current roof windows.
- Article: 98000196
- Preparation of mounting plates, including the necessary holes for fitting the roof window profile.
- Preparation of the fixing hole in the roof window profile for fitting the end caps and pleated blind.
- Technical Specifications:
- Connections: pneumatic 7.0 bar, electrical 230 V AC / 50-60 Hz
- Dimensions: 370 mm x 430 mm x 650 mm (H x W x D)
- Weight: 95 kg
- Warranty: 12 months


Servicing the Water Sewer Treatment Industry
Installation, maintenance, and repair of systems such as valves and pumps to ensure efficient and reliable water flow.
Installation, and maintenance of electrical systems and equipment, such as control panels, VSDs, Instrument Calibrations, and more.
Installing, maintaining, and repairing large-scale plumbing systems, including water supply, sewage, and stormwater drainage.
Constructing large-scale pipeline networks such as water transfer mains and distribution systems.
Installation, and maintenance of systems, such as Chlorination skids, A-Class, and recycled water plants.
Since its inception in 1993, Jonoco has been delivering exceptional service to water boards across Victoria and Australia.
Today, they continue to excel in providing innovative solutions and expert services to the water industry, solidifying their reputation as a leader in their field.
Safeguarding individual’s and the environment to ensure a future where safety is paramount and harm is not just reduced, but eliminated.
Innovation drives us to creat unique solutions for the water industry, constantly pushing boundaries to ensure a quality and efficient solution.
Prioritising eco-friendly practices and technologies to protect our planet’s water resources for generations to come.
From design to flipping the switch on your new pump station, we blend mechanical know-how with electrical expertise to ensure a smooth, friendly, and efficient experience.
Installation of piping systems, including new pump station connections, recycled water mains, and sewage transfer lines, ensuring a seamless journey from concept to completion with precision engineering and reliable execution
Poly welding for durable, leak-proof connections in critical applications such as water and gas distribution networks, utilizing advanced techniques for both small-scale and large infrastructure projects
Construction and maintenance of chemical facilities for the water industry, dealing with common chemicals such as chlorine, MHL, aluminium phosphate, and much more.
We offer specialised solutions in remote dosing skids, designed to precisely manage chemical dosing in water treatment processes, including chlorine for disinfection and polyphosphates for pipe protection, enhancing safety and efficiency in hard-to-reach locations.
Committed to a Clean Water Future
“Jonoco aims to be the leader of water services in the industry. Including treatment, delivery and sewage management”
Director at Jonoco
ISO 9001 - Quality Systems
ISO 9001 accreditation guarantees top-quality products and services, ensuring customer satisfaction and efficiency in every project.
ISO 14001 - Environmental Management
Our commitment to sustainability is highlighted by our ISO 14001 certification, emphasizing our efforts in eco-friendly practices and minimising environmental impact across all operations.
ISO 45001 - OH&S Management
Prioritising safety is one of our key pillars, affirmed by our ISO 45001 certification, which shows our dedication to maintaining a healthy and safe working environment for all.
Choose Jonoco for your next project!
Call us on (03) 9540 0311 or fill out the contact form below with your enquiry.


Construction Company fife, Building your dream home starts with choosing the best residential construction company in Scotland. They’ll bring your vision to life and keep the process under control throughout.
A good builder also needs to be familiar with zoning regulations, health and safety and other legal requirements in the Scotland, UK region.
Cross-laminated timber (CLT)
As the construction industry continues to innovate, building materials are being introduced that are stronger, cheaper, and more environmentally conscious. One such material is cross-laminated timber (CLT).
CLT, which is a form of mass timber, was first developed in Europe in the 1990s and has since become widely used throughout the world. This engineered wood product consists of layers of solid-sawn lumber that are glued together.
The stacked boards are then sprayed with an adhesive, compressed, and cut to the desired size. Once this process is complete, the panels are crane-guided to the building site and assembled on-site.
This manufacturing method reduces waste and the time it takes to fabricate. Construction Company fife, Oastler Construction also ensures that the home is constructed on-time and within budget.
Can be used for a variety of different applications, including walls and ceilings. It is a durable and affordable alternative to other construction materials, especially concrete and steel.
Construction Company fife
In addition to the durability of this wood product, it can provide an attractive aesthetic as well. It is available in several different grains and shades, allowing it to fit a wide variety of design preferences.
Many builders believe that CLT offers an excellent way to create a sustainable home with a modern, minimalistic look. The material’s strength and acoustic properties also help to keep energy costs down.
While the CLT market is still growing, there are some disadvantages that can make it a less than ideal choice for certain projects. For example, the panels may not bond perfectly to each other and the moisture content of the wood can change over time. Additionally, there are some issues that may arise with the building’s openings.
Another issue is the amount of labor required to build these structures. Construction Company fife, As a result, it is important to work with a trusted construction company that can handle the project.
The construction of a CLT-built home can be a little more complex than traditional stick-built construction, but the overall cost is generally lower and the time saved is significant. In fact, Burbank Construction recently built a model home using CLT that took 22 fewer days to finish than a standard light-framed wood structure.
Oastler construction Scotland
Oastler construction is a way of building buildings that are designed to last for a long time and don’t harm the environment. This approach can bring many benefits to both the client and the contractor. It can reduce energy bills, improve the quality of life for those who live in the building, and encourage economic prosperity.
Some of the most reputable Oastler builders in Scotland are dedicated to designing and building homes that minimize their environmental impact and stand the test of time. These companies are committed to using eco-friendly materials, designing and building homes that are energy efficient, and offering a wide range of options to help you make your dream green home a reality.
Ness Homes is a well-established construction company that has been in business for over 30 years. It is a leader in green construction and has achieved numerous awards for its work.
This company is known for its use of eco-friendly materials and building practices, constructing houses with passive solar design that maximizes natural light and heat. The firm also builds bespoke buildings that are designed to fit the needs of individual homeowners.
Moreover, the company is committed to creating a more sustainable built environment through its partnerships with local businesses and communities that it helps build. It also works to promote diversity and inclusion within its workforce.
Joinery Services Fife
The company also strives to be environmentally friendly by using renewable resources and reducing the amount of waste produced. It aims to meet the BREEAM (Building Research Establishment Environmental Assessment Method) standards and ISO 14001 environmental management system requirements.
In addition, the company is committed to reducing its carbon footprint by using recycled and renewable materials in construction projects. This includes sourcing raw materials from local sources. Construction Company fife, recycling them when possible, and composting their waste.
Timber Design and Construction is an oak-focused building construction company that sources and mills its wood from Scotland. This ensures that the trees are grown locally and shaped by Scottish hands to deliver a truly environmentally-friendly product.
Similarly, IndiNature is an insulation business that uses hemp grown in Scotland to create its carbon negative building insulation. The company will soon open a manufacturing hub in Jedburgh and plans to hire up to 30 workers by summer 2022. This new plant will produce a carbon-negative insulation system that can be fitted to both new and retrofit projects.
Energy efficiency Scotland
Energy efficiency can reduce the cost of electricity for households and businesses, creating a financial incentive to increase its adoption. In addition, it helps stabilize the cost of electricity and reduce volatility caused by fluctuating fuel prices.
It also has positive environmental impacts, including reducing greenhouse gas emissions and other pollutants. Additionally, it can help diversify utility resource portfolios and create a more resilient power grid.
In fact, the IEA estimates that energy efficiency is one of the most effective methods for lowering greenhouse gas (GHG) emissions and meeting global climate change goals. According to the IEA, energy efficiency is critical for achieving greenhouse gas emission reductions of 2 degrees Celsius or lower by 2030 and to limit temperature rise to 1.5 degrees Celsius or less by 2050.
Despite these benefits, energy efficiency still faces barriers to widespread implementation in many countries. This is especially true in the developing world, where governments typically do not have the resources to invest in energy efficiency measures to achieve economic growth and reduce greenhouse gas emissions.
By understanding the multiple benefits of energy efficiency, we can begin to close this gap and accelerate its implementation. In addition, we can better understand the value of these benefits for society overall.
We can then use this information to improve our policies and programs, allowing us to make the most of these benefits for our communities. In this way, we can maximise the impact of our investments in energy efficiency.
This is a key part of our work at Scotland Excel. We are helping councils and housing associations in Scotland to adopt a variety of measures to build energy efficient homes and buildings.
Aside from building new houses, we are able to retrofit existing properties for increased energy efficiency. Our work ranges from lighting and window upgrades to replacing outdated equipment with efficient models.
If you are planning to build a house, it is important to choose a sustainable home builder with experience in green construction techniques. These companies can provide turnkey solutions for design-led, smart, modern homes throughout Scotland. They are committed to high standards of efficiency and minimal carbon footprints Construction Company fife, and they can offer a variety of green features such as triple glazing, air-source heat pumps, and mechanical heat recovery ventilation.
Design-build is a project delivery method that combines the roles of an architect and construction company. It is a less expensive and faster way to build a new home than traditional design-bid-build.
The design-build team will work with you from the start of your project to complete all of the necessary tasks, including design, estimating, and construction. The process will also include communication between the design and construction teams, as well as with the other parties involved in the project.
It is best to select a Scotland design-build firm that has a solid reputation for its service and expertise in the areas you want your home built. This will ensure you receive the best possible design for your money and a high-quality finished product once the project is completed.
During the design phase, you will be presented with several options for your home and able to make decisions based on your budget. Construction Company fife, This will help you stay within your budget and avoid overspending.
Another benefit of choosing a design-build company is that they will provide you with a single point of contact throughout the process. This means you can have clear communication with the construction team and the designers, which will increase efficiency.
The design-build process also helps to simplify project management, since all of the members of the team are under one contract. This will also help to minimize costs and delays during the construction process.
This type of project delivery method also allows for more innovation and collaboration. It also fosters close communication between all of the team members. Construction Company fife, which helps to reduce confusion and eliminates potential problems.
The benefits of using this project delivery method are numerous and include a reduction in overall cost, a streamlined construction process, and a higher degree of accuracy than traditional design-bid-build. However, a number of factors must be considered when selecting a design-build firm. First, choose a Scotland company that has a reputation for excellence and works with reliable subcontractors. Next, decide on a project budget and set expectations of completion dates.


Ventilation in your roof space is the key to keeping your roof cooler in summer and dry in winter. If you need Commercial Roof Ventilation or Residential Roof Ventilation, we will create the solution for you. In summer if there is no ventilation in your roof space this will affect the performance of your insulation on the ceiling as the insulation will keep the heat even after the sun has gone down and the roof is cooling down its just doing its job. If you put ventilation in the roof manual or mechanical this will help the roof cool down faster and help the insulation cool down faster. What does this mean in Winter though, in winter if your roof does not have ventilation there can be excessive amounts of condensation build up in the roof and cause mold on your insulation and ceiling.
With the aid of ventilation, the air flow can reduce the amount of condensation in the roof keeping it dry. Our team can explain all your options in the free measure and quote service we provide to all our customers.


Our team are happy to answer any queries you may have about a potential site and can make an initial assessment of viability and generating capacity. This includes an initial desktop system design using our mapping and flow modelling software.
Detailed system designs and costs require a site based survey and initial consultations with SEPA (Environment agency) and the appropriate DNO (Distribution Network operator). This is the company that manages and maintains the power distribution network or local electricity grid in the area.
- Assessing potential sites
- On Site surveys and consultations
- Detailed system designs with costs and schedules
- Permissions, Planning and Grid connection
- Finance options
- System fabrication and installation
- Ongoing maintenance.
In our experience an integrated approach to managing the development of a scheme is essential.
In particular, the process of acquiring all the appropriate permissions can become complicated and lead to delays
Our team works to ensure that all the relevant agencies have all the data and design information supplied with the relevant application forms to a clear schedule.
- The site owner can entirely finance the system, Co-Hydro will manage all permissions, system design and installation. With this option the owner is responsible for the maintenance costs and receives all revenue.
- Shared finance / revenue options can also be arranged.
- Co-Hydro can entirely finance a system, managing all permissions, system design and installation with a fixed percentage of revenue going to the landowner.


- Ubair ul Hameed
Baramulla : Construction of the Jetty bridge in North Kashmir’s Baramulla district has remained incomplete for the last 15 years causing great inconvenience to people. The work on the bridge was started in 2001 but remained suspended for quite some time due to which the Roads and Buildings (R&B) department has failed to meet the deadlines.
Residents of Khawaja Bagh Baramulla and its adjoining areas have complained that they face difficulties in commuting due to the slow
pace of construction work on the jetty bridge. Residents say the bridge will not only streamline the heavy traffic movement in Baramulla but the vital bridge at Jetty will also connect Kupwara district to Srinagar via Handwara.
In 2001 The J&K Projects Construction Corporation (JKPCC) had started the work on the bridge near Jetty but the construction agency suspended it soon. The state government in 2003 asked the authorities to complete the construction of bridge at Jetty but the latter did not respond which delayed the construction again, JKPCC sources said.
“Construction of the bridge near Khawaja Bagh is going on at snail’s pace. If the construction authorities do not work on the bridge, it will take yet another decade to make the bridge motorable. The construction work on the bridge was suspended in 2001 and it has not been resumed till date,” said Mohammed Ashraf, a local resident. “Cost of the construction material and the cost of labor has doubled since 2001, this had made the government to propose new plans for construction which is more time consuming, this leads to further delay and at the end in creating trouble for thepopulation” he added.
The local residents demanded that that the construction of the bridge should be resumed as soon as possible.
“This bridge will shorten the distance by at least 20 km between Srinagar and Kupwara. It will also give relief to the commuters in Baramulla who are victims of frequent traffic jams daily. In view of an increasing strategic importance of the bridge, we appeal to the concerned authorities to resume the construction soon,” said Showket Ahmad, JKPCC Deputy General Manager. JKPCC has submitted a report to the government in this regard, he added.
The work on the vital bridge was suspended due to the paucity of funds. We have already written to the government to provide funds,” Showket said.


Are we in the last days of the last days? The state of religion today indicates that we are. Note the following article from the newpaper USA TODAY.
"WATER WALK--Israel's National Parks Authority announced plans Monday (Jan. 25, 1999) to build a submerged bridge in the Sea of Galilee that would allow tourists to simulate Jesus' miraculous walk on water. The Associated Press says a 13-foot-wide floating bridge will be hidden just below the water surface. It is ONE OF MANY ISRAELI PROJECTS for the millennium when four million pilgrims are expected to visit Israel."
[Top of page]


Whatcom Community College’s Health Professions Center: Constructed summer 2013, this state-of-the-art 27,000 sf, 2-story facility was built to house WCC’s Nursing and Allied Health programs. Built on a 96,000 s.f. site in Cordata Business Park’s high-tech zone, this building is the result of an innovative public-private partnership between Blossom Management Corporation, Dawson Construction and the WCC Foundation to create quality instructional space for in-demand college programs. The Whatcom Community College Foundation purchased the facility in March 2014.
475 West Stuart Road Bellingham, WA