How does Contech Startups' Growth Influence Construction Market?

Construction Tech Review | Wednesday, September 18, 2019

Emerging technologies used by the construction sector and seed funding round help the construction startups to get a place in the contech ecosystem.

FREMONT, CA: A number of technology markets have appeared in recent years with names like fintech, proptech, and insuretech. Construction technology, on the other hand, is not so popular yet. Contech platform leverages the solutions primarily for the concept, design, engineering, and building phases of the construction process. Proptech tends to adopt more of a real estate perspective. Proptech initially includes solutions for use in the operation and maintenance of an existing building. Considering the emergence of new technologies in construction,  the industry is witnessing a new flurry of funding of contech startups for the past few months. As the construction sector is growing, several companies have also announced funding and support from their investors. Listed below are some of the hot startups to look forward to.

OpenSpace

Stay ahead of the industry with exclusive feature stories on the top companies, expert insights and the latest news delivered straight to your inbox. Subscribe today.

OpenSpace, a construction site data and analysis company, announced a $14 million funding led by Lux Capital with other investors, including construction and development firms Suffolk Construction and Tishman Speyer. The company's platform uses artificial intelligence to create navigatable, 360-degree photo representations of job sites during the regular walkthroughs. Employees attach a small camera to their hardhats and walk the site as normal, with OpenSpace capturing imagery in the background. This imagery data is then uploaded on the cloud, where the algorithms and conditions map the photos to enable the project plans and tailor them together. This creates a visual representation of the site, similar in style to Google Street View.  The imagery is virtual, and with OpenSpace, project stakeholders can conduct virtual site tours, communicate easily about anything related to change orders, and review the photo record to observe the changes over time. The technology is in use on projects which exceeds $50 billion in total value in the United States and all around the world. Construction companies using the program include Turner Construction, Novo Construction, and Hathaway Dinwiddie.

Civdrone

Civdrone, a drone startup announced that the company had raised $500,000 from New York-based firm ff Venture Capital. The Israeli firm raised $1.5 million in pre-seed round. It is a part of the GENIUS NY UAV accelerator and Infralab construction technology innovation lab in Israel. The company, Civdrone, is the first autonomous land surveying drone in the market. The company's device and software work with commercially available drones to survey a job site and insert stakes integrated with QR codes into the soil. The programs help the drones to watch coordinates within half-inch accuracy in the greater infrastructure construction sites. Civdrone is tested on a different road and building sites in Israel, and in October, the firm will announce the demonstrations for U.S. customers. 

Versatile Natures

An  Israeli-based startup with offices in San Francisco and New York City, Versatile Natures announced the $5.5 million seed funding it received from Germany's Robert Bosch Venture Capital and other investors. This gets added to the $3 million in the pre-seed funding that the firm raised three years ago.  The firm's Crane View platform enables a holistic view of the construction sites via a sensor mounted under the hook of a crane. The data collected by the sensors offer insights including information on materials, redundancies, construction progress, and crane utilization. The product with its machine learning and excellent AI-based algorithms helps to improve safety by identifying near misses on the job sites. This particular platform is widely used by the U.S. construction companies as a part of the company's early adopters program, comprising Turner Construction, Swinerton, First Florida, and Clark Pacific. The commercial usage is expected in Q4 this year, beginning with early adapters and followed by the companies on the Versatile Nature's waitlists.

Ynomia

Ynomia, an Australian startup, gained a $3.6 million in a seed funding round which was held by the investors including San Francisco-based  Brick&Mortar Ventures. The company was founded in February last year and provides Bluetooth-powered technology which helps to track the materials and ensures that teams are always connected on construction sites. It enables the employees with the ability to locate materials, tools, and people across the job site in real-time. It is being used on several large-scale mixed-use developments in Melbourne and for the projects in the United Kingdom and will be only available in the U.S. in the second quarter of the next year. 

More in News

Intelligent buildings have revolutionized the management and optimization of our surroundings by utilizing data-driven insights to enhance efficiency, comfort, and sustainability.  This article discusses the problems with intelligent buildings which are being ignored. Smart buildings have transformed the management and optimization of our environments by leveraging data-driven insights to improve efficiency, comfort, and sustainability. Nevertheless, introducing various sensors has brought forth a new array of challenges. Sensor Overload: Selecting the Essential Sensors Sensors serve as the fundamental components of intelligent buildings, delivering vital information regarding temperature, humidity, air quality, water leakage, energy usage, and other factors. Nevertheless, selecting the necessary sensors and determining their ideal locations can be a daunting task. To prevent sensor overload, it is essential to identify critical parameters tailored to your building's specific needs. You can optimize the sensor installation process by performing a comprehensive assessment of your building's requirements and seeking guidance from professionals. Data Overload: Making Sense of the Deluge Due to the extensive array of sensors installed in intelligent buildings, significant quantities of data are produced. The primary challenge is to effectively aggregate and interpret this data. To address the issue of data overload, a comprehensive data management platform is crucial. This platform must be equipped to collect, process, and analyze sensor data in real-time, providing actionable insights to facilitate decision-making. By utilizing advanced analytics and artificial intelligence, it is possible to convert raw data into meaningful information that supports informed actions. Power & Wires: Minimizing Installation Challenges The installation of sensors frequently requires significant wiring and power supply configurations. Although new constructions can easily integrate these necessities, retrofitting older buildings can prove expensive and disruptive. Intelligent building solutions are constantly advancing, with wireless sensor technologies becoming increasingly important. Adopting wireless sensors and battery-operated alternatives can minimize the reliance on extensive wiring, simplifying installation and enhancing scalability. Connectivity: Outsourcing the Hassle Establishing a dependable and resilient network infrastructure for sensor connectivity is essential for obtaining real-time data. Nevertheless, overseeing sensors and network connectivity may impose an extra challenge for building owners and operators. Collaborating with professional service providers or partnering with managed service providers (MSPs) focusing on intelligent building solutions can help mitigate this responsibility. MSPs are equipped to manage the connectivity components, guaranteeing smooth data transmission, network security, and continuous access to sensor data. Maintenance: Streamlining Operations Sensor upkeep and routine inspection can prove demanding endeavors, especially when managing numerous sensors across various locations. Establishing a systematic maintenance strategy is crucial to guarantee that the sensors operate at peak efficiency. Integrating remote monitoring functionalities can streamline maintenance efforts by offering real-time status reports, notifications for faulty sensors, and insights for predictive maintenance. Additionally, employing standardized sensor interfaces along with self-diagnostic capabilities can enhance the simplicity of testing and maintenance activities. Smart buildings present significant opportunities for enhancing energy efficiency, increasing occupant comfort, and optimizing operational processes. However, addressing the challenges associated with sensor overload, data management, power demands, connectivity, and maintenance is vital to ensure successful implementation. These obstacles can be effectively managed by judiciously choosing critical sensors, utilizing effective data management systems, capitalizing on wireless technologies, outsourcing connectivity oversight, and adopting efficient maintenance strategies. With appropriate strategy established, smart buildings can realize their full capabilities and contribute to a sustainable and intelligent future. ...Read more
At the same time, manufacturers are refining production capabilities to align with stricter environmental standards and smarter building ecosystems. This convergence of sustainability, digital innovation, and user-centered design is redefining how surfaces are specified and experienced throughout the built environment. How Are Sustainable Materials Redefining Regional Flooring Choices? Environmental awareness has moved from a niche consideration to a central decision driver in flooring selection. Developers are prioritizing low-emission materials, renewable inputs, and production processes that reduce resource strain. Surfaces made from recycled composites, responsibly sourced natural fibers, and bio-based binders are gaining traction across urban expansion zones and hospitality corridors. These options are increasingly designed to meet performance expectations while supporting green building certifications demanded by regional planning authorities. Manufacturers are also investing in closed-loop production models that limit waste and encourage material recovery at the end of a product's life cycle. This shift is influencing procurement strategies among contractors who must balance durability with environmental accountability. In response, suppliers are highlighting transparency in sourcing and manufacturing, positioning sustainability as both a compliance requirement and a competitive differentiator. Climate responsiveness is another defining element. In regions facing high humidity, temperature fluctuations, or dust exposure, advanced surface treatments are engineered to resist warping, staining, and microbial growth. Such adaptations reflect a broader industry movement toward materials tailored to local environmental pressures rather than one-size-fits-all solutions. Why Is Smart Integration Transforming Surface Performance Expectations? Digital transformation is steadily shaping expectations for how flooring contributes to intelligent spaces. Developers are exploring surfaces embedded with sensor capabilities that interact with building management systems, supporting energy efficiency and space optimization strategies. In commercial settings, integrated technologies assist with occupancy monitoring and predictive maintenance planning, enhancing operational oversight without intrusive installations. Customization is evolving alongside connectivity. Digital printing and precision manufacturing allow designers to replicate natural textures, artistic motifs, and branded visuals with remarkable consistency. This level of personalization supports retail environments seeking immersive experiences and corporate spaces aiming to reinforce identity through cohesive design language. Acoustic performance and comfort enhancement are also at the forefront of innovation. Multi-layer constructions are engineered to reduce noise transfer in high-density developments, addressing the growing demand for quieter living and working spaces. Enhanced cushioning systems contribute to ergonomic benefits in educational and healthcare facilities, where prolonged standing is common. Another emerging trend involves modular adaptability. Interlocking systems and flexible surface panels are designed to accommodate rapid layout changes, reflecting the dynamic nature of coworking hubs and mixed-use complexes. This adaptability supports renovation cycles without extensive structural disruption, aligning with regional development models that prioritize agility and phased expansion. ...Read more
Intelligent building technology transforms the way we design, develop, and manage modern infrastructure. Intelligent buildings have numerous advantages, including increased energy efficiency, improved occupant comfort, increased security, and streamlined operations. As urbanization accelerates and demand for sustainable solutions rises, intelligent building technology will play a crucial role in creating the future of infrastructure. The key motivators for intelligent building technologies are increased energy efficiency and sustainability. Traditional buildings frequently waste large quantities of energy due to inefficient lighting, heating, and cooling systems. Intelligent lighting systems can use motion sensors and daylight harvesting techniques to optimize lighting, ensuring that lights are only on when needed. AI-driven energy management platforms can analyze energy usage patterns and suggest strategies for further reducing energy consumption. Smart systems can learn occupant preferences, such as preferred temperature, lighting levels, and ventilation settings, and adjust these factors automatically to create an optimal environment. A smart office building might use data from wearable devices or smartphones to identify an employee's arrival and adjust their workspace settings accordingly. Security is a top priority for modern infrastructure, and intelligent building technology offers advanced solutions to enhance safety and protection. AI-powered surveillance systems, biometric access control, and facial recognition technologies provide heightened security measures beyond traditional methods. Intelligent buildings can improve indoor air quality by monitoring CO2 levels, humidity, and air pollutants. Intelligent buildings can integrate smart cameras and sensors to monitor real-time activity, identifying potential security threats such as unauthorized access or suspicious behavior. Intelligent buildings use data-driven insights to optimize operations and streamline maintenance processes. The systems can trigger alarms, notify security personnel, and even lock down specific areas in response to detected threats. Intelligent buildings use smart sensors to monitor for hazards like fire, gas, or water leaks. The sensors can automatically activate fire suppression systems or shut off utilities to prevent damage and protect occupants. Predictive maintenance is one of the critical advantages of intelligent building technology. It reduces downtime, extends the lifespan of equipment, and minimizes repair costs. IoT devices and AI analytics continuously collect and analyze data from building systems, such as HVAC, lighting, and elevators, to monitor performance and detect inefficiencies. Intelligent building management systems (BMS) allow facility managers to control and monitor all building systems from a centralized platform. It enables remote management of multiple buildings, providing real-time insights into energy usage, occupancy levels, and system performance. Intelligent building technology allows modern infrastructure to adapt to changing needs and future developments. As cities evolve and new technologies emerge, smart buildings can be easily updated and reconfigured to accommodate new functionalities. Smart buildings can integrate new IoT devices, sensors, or renewable energy sources without significant structural changes. Adaptability is crucial in future-proofing infrastructure, ensuring that buildings remain relevant and efficient as technological advancements continue to shape the built environment. Intelligent buildings can support smart city initiatives by connecting to broader urban infrastructure systems. The vast amount of data generated by intelligent buildings is invaluable for improving building performance and decision-making. Advanced analytics platforms collect data on energy consumption, occupant behavior, system performance, and environmental conditions, providing building managers and decision-makers with actionable insights.  ...Read more
Dry construction enables builders to construct buildings with more durability and safety features without harming the environment. The world is seeing a technological revolution, but with global warming. Sustainability is becoming a trend in every industry to control global warming. The construction industry is no different. Research shows that buildings absorb a vast amount of energy. Therefore, it has become essential to construct buildings with innovative dry construction technology to save the environment. Dry construction systems allow the construction sites only to assemble the large structures, which are designed and manufactured at a different location under a controlled environment. Dry construction technology has numerous benefits for building construction and environmental safety. Safety: Construction materials like steel, insulated panels with a polyurethane core, alloy, and high-grade plastics are lightweight, adaptable, and durable. The alloy used in the panels is highly effective in absorbing seismic energy. All of these help reduce greenhouse gas emissions and carbon footprint. Sustainability: Steel used in building construction is suitable for repurposing and is easily retrievable. Insulating panels can be dismantled and reassembled as per requirement. These features reduce waste and also minimize repeated manufacturing. Natural Resources : As the name suggests, dry construction is done without water and no wastage. Insulating panels are fabricated at different locations and assembled at the construction site without concrete. Thus, no natural resources are used or wasted. Dismantling: Dry construction is best known for its manufacturing units at different places and fixing the structures at the construction site. It keeps the site clean and free of wastage. Durability: Unlike concrete which requires maintenance, steel and polyurethane are highly ductile because they do not react with chemicals, light, and water. The insulating panel and steel are galvanized to prevent rust due to environmental impact. Check Out This : Chemical Industry Review Promoting dry construction over wet construction is recommended because it uses materials like steel, high-grade plastic, gypsum board, and plywood instead of concrete. It reduces immense time and water consumption, easy installation, less wastage at the construction site, and improves thermal and sound insulation, moisture resistance, and fire safety. There is immense competition in the market of dry construction as most governments across the globe are supporting dry construction methods. But there are a few dependencies and challenges as well. There is a huge manufacturing cost associated with the dry construction methods, which many companies cannot afford. Trained professionals are required to develop and install the components. Despite these obstructions, the dry construction market is gradually gaining momentum and is expected to rise in the upcoming years. ...Read more
follow on linkedin follow on twitter Copyright © 2026 All Rights Reserved | by:

Construction Tech Review

| Subscribe | Sitemap| Newsletter| Editorial Policy| Feedback Policy
Top