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A Digital Twin is a digital representation of a physical object or system, often used in various industries for simulation, analysis, and monitoring. In the built environment, which encompasses everything from buildings and infrastructure to urban planning, Digital Twins have a wide range of potential applications that can significantly enhance efficiency, sustainability, and overall quality of life. Digital twins have emerged as a transformative concept in the built environment, revolutionizing how buildings, infrastructure, and cities are designed, constructed, and managed. This innovative technology leverages the power of digital simulations and real-time data to create virtual replicas of physical assets, offering numerous benefits across various sectors within the built environment. The technology owner is seeking co-development partnerships with building owners, facity management companies, smart city or urban planners to adopt their digital twin technology in achieving their sustainability objectives. Digital twin model development & data gap report This stage involves the creation of a baseline digital twin of the proposed facility. Measured performance data input This involves gathering measured data from various sources. This would be the building BMS system and/or any other source of live or streaming operation data. Model calibration This includes the testing of the model with logic checks and balances to verify the basic inputs. Actual building experience and monitored data will be used to make any final adjustments and calibration so that the virtual model outputs align closely to reality. Analysis & diagnosis Once the baseline model is complete and confidence exists as to its validity from the calibration accuracy (over 95% accuracy), the model can be used to run “what-if” scenarios for the future. Retro commissioning (RCx) i.e. change in operations without any additional investment options will be analysed. Corrective action The team will develop a set of bespoke/customized alarms, alerts and control rules to continuously optimize building energy performance using real-time data. Deployment A workshop will be conducted to make the participating stakeholders aware of the digital twin process. Required software access as well as the user guides will be shared during the deployment. Monitoring The final stage will be the monitoring of the digital twin post-implementation. Some key potential applications for Digital Twins in the built environment: Architectural and Urban Planning: Digital Twins can be used to create virtual models of cities, allowing urban planners and architects to simulate and visualize different design scenarios. Energy Efficiency and Sustainability: Digital Twins can be used to model and simulate a building's energy consumption and environmental impact. Facility Management: Once a building is operational, Digital Twins can be used for ongoing facility management. Smart Cities: Digital Twins can serve as the backbone of smart city initiatives. By creating digital replicas of urban infrastructure and systems, city authorities can monitor traffic flow, manage waste collection, and respond to emergencies more effectively. Real Estate Development: Developers can use Digital Twins to create virtual walkthroughs of properties, allowing potential buyers or tenants to explore spaces before they are built. The Digital Twin industry is growing phenomenally, the Digital Twin Market size is expected to reach 63.5 Bil USD by 2027. The number of cases using digital twins for implementation is likely to go up to 23% in 2024 from 10% in 2021. The opportunities to use a digital twin in a built environment are quite a few: Building Performance Optimization: Digital Twins allow for continuous monitoring of a building's performance, including energy consumption, HVAC systems, and structural integrity. Sustainable Building Practices: With increasing emphasis on sustainability, Digital Twins can facilitate the design and monitoring of green and sustainable buildings. Urban Planning and Smart Cities: Digital Twins extend beyond individual buildings to entire urban environments. Cities can create virtual replicas of their infrastructure to optimize traffic flow, manage resources efficiently, and improve the overall quality of life for residents. Real Estate and Property Management: Property owners and managers can use Digital Twins to enhance tenant experiences, monitor building health, and predict maintenance needs. Facility Maintenance and Operations: Digital Twins provide real-time insights into the condition of assets within a facility. Data-Driven Decision-Making: The wealth of data generated by Digital Twins allows for data-driven decision-making at all stages of a building's lifecycle. Integration with IoT and AI: The combination of Digital Twins with the Internet of Things (IoT) and Artificial Intelligence (AI) technologies further enhances their capabilities. Improved Design and Simulation: Architects and engineers can use Digital Twins to experiment with different design concepts and test how they perform in various conditions. This allows for better optimization of building systems, materials, and energy usage, resulting in structures that are more sustainable and resilient. Real-Time Monitoring and Maintenance: Once a building is operational, the Digital Twin continues to add value by collecting and analyzing real-time data from sensors and IoT devices. Energy Efficiency: Digital Twins can optimize energy usage by analyzing data from sensors that monitor temperature, humidity, occupancy, and more. Cost Savings: By preventing errors, reducing downtime, and improving energy efficiency, Digital Twins can generate substantial cost savings over the entire lifecycle of a building or infrastructure project. Sustainability: Digital Twins enable sustainable design and operation by allowing architects and engineers to assess the environmental impact of their decisions. Risk Management: By simulating different scenarios and continuously monitoring a building's performance, Digital Twins can help identify potential risks and vulnerabilities, allowing for proactive risk management and disaster preparedness. Remote Collaboration: In an increasingly globalized world, Digital Twins facilitate collaboration among teams located in different parts of the world. Data-Driven Insights: Digital Twins generate vast amounts of data, which can be leveraged for data-driven insights and machine learning applications. Green Building, Sensor, Network, Building Control & Optimisation

For many years, gas detection applications in industries have predominantly relied on single point detectors, which are applicable in many industries covering a wide market sector.   Starting from the year 2010 and onwards, open path line detectors have gained significant recognition and popularity due to their cost-effectiveness and ability to cover larger areas, thereby enhancing safety measures.  More device options are now on the market.   However, all of these devices have the inherent problems of false alarms due to environmental interference, such as rain and snow. A waveform matching technology – multi order laser emitting spectrum (MOLES) was invented. This cutting-edge technology ensures specific gas detection, it only detects when specific gas is detected, and eliminates all false alarms caused by environmental interference.   By gathering industrial inputs and feedbacks, improvements and user-desired features are incorporated into this invention, to enhance its overall performance, reliability and solving many user problems on site, such as no display, alignment problems, and calibration.  This breakthrough innovation will provide a more efficient and reliable gas detection solution for industries, safeguarding their operations and personnel. This Open Path Gas Detection technology is Laser Gas specific with: Customised micro-controller based CPU With built-in automatic calibration capability With built-in visible laser for ease of installation and alignment With built-in display for improved ease of use at site; single man operation instead of two With built-in audible siren for alarm warning Ideal collaboration: B2B – Gas detection manufacturers B2C – Gas detector users from the Chemical, Petro-Chemical, Oil & Gas industries This open path gas detection devices are applicable in a wide market sector, including Oil and Gas, Chemicals, Water and Wastewater, Marine, Transport, Semi-conductor, Food and beverage, and Energy.   According to a research report published by Spherical Insights & Consulting, the Global Gas Detection Equipment Market Size is to grow from USD 4.25 billion in 2022 to USD 13.87 billion by 2032, at a Compound Annual Growth Rate (CAGR) of 12.56% during the projected period. Additionally, increased exploration and production by several oil corporations, such as the National Offshore Oil Corporation of China and the Oil & Natural Gas Corporation of India, is increasing demand for the region's gas detection equipment market. The Asia Pacific gas detection equipment market is expected to be led by China. North America is predicted to expand the fastest during the forecast period. The abundance of a big oil and gas pipeline network, as well as oil and gas refinery operations, in nations such as the United States and Canada, predicts significant market growth. Though Open Path gas detection devices may constitute a small percentage in the gas detection market, estimated <5%, it has fast been recognised in recent years to be more cost-effective option, and many new installations and projects nowadays, specified in their constructions, to have more open path devices for improved and effective gas leaks safety preventions.  Therefore, it is projected that the market potential for this open path devices is encouraging.  This open Path Gas Detection Device is: More cost effective than existing point detection devices Extra long distance coverage ~200m Enhance reliability and performance as compared to existing open path gas detection devices Eliminates false alarms due to environment interferences Improved ease of use; installation and alignment Open Path, Gas Detection, Long Distance, Multi Order Detection, Laser, Oil & Gas Electronics, Sensors & Instrumentation, Green Building, Sensor, Network, Building Control & Optimisation, Environment, Clean Air & Water, Sensor, Network, Monitoring & Quality Control Systems

Lithium ion (Li-ion) battery is now the dominant energy storage system in portable electronics and electric vehicles (EV). The rapid expanding EV is driving the demand for next generation high-energy batteries. Compared to conventional Li-ion batteries with graphite anode, which has a theoretical capacity of 372 mAh/g, lithium-metal batteries can deliver ten times of specific capacity (3860 mAh/g). Theoretically, anode-free batteries can double the energy density in volume compared to Li-ion batteries at the cell level. However, current anode-free batteries suffer from faster capacity decay due to poor lithium plating on Cu foil. To overcome this challenge, the technology owner has developed a liquid electrolyte comprising lithium difluoro(oxalate)borate (LiDFOB) and a carbonate solvent, enabling reversible lithium plating of anode-free lithium metal batteries. This electrolyte ensures good thermal stability with smooth Li plating of counter electrode on the anodic side even at elevated temperatures. It facilitates a capacity retention of above 80% after 100 cycles for an anode-free battery or 80% after 400 cycles for a battery with a Li metal anode. The technology owner seeks collaboration with industrial partners such as battery developers and manufacturers for further co-development and test-bedding of electrolyte and subsequent licensing of this technology for commercialisation. The patented technology is an electrolyte comprising lithium difluoro(oxalate)borate (LiDFOB) dissolving in an organic carbonate solvent that has the following features: High concentration of the LiDFOB in the range of 1.5M to 3M Enable smooth and reversible lithium plating / stripping Good cycling performance and high charging rate Good thermal stability enabling high operating temperature (up to 80 °C) Good electrochemical stability compatible to high voltage cathodes The patented electrolyte can be applied to high-energy lithium ion batteries, which have the following potential applications: Aerospace and aviation (drones and satellites) Electric vehicles (EVs, HEVs) Grid-scale energy storage Backup power systems Enable smooth and reversible lithium plating Higher energy density (about 30% increase in gravimetric capacity) Good thermal stability and cycling performance Enable high-energy-density anode-free lithium metal batteries Lithium ion battery, Electrolyte, LiDFOB Energy, Battery & SuperCapacitor, Chemicals, Polymers, Organic

Algae are very diverse organisms that possess many functional ingredients. With the suitable cultivation know-how and state-of-the-art technology, the applications for algae are limitless. A cleantech start-up focuses on algae as means to provide sustainable solutions to global issues. Most algae companies use a single alga for specific applications. However, the start-up uses its intensive library, breeding and cultivation expertise, and its mass production technology to provide targeted products and solutions for different industries. The start-up is seeking for partners that are interested in exploring algae for their industrial applications, which can include food, medical, or environmental purposes. Possible modes of collaboration include technical consultancy, R&D, process and/or product development.  The start-up offers an “Algae Platform” that consists of the following: Consulting Intensive Strain Library Screening Breeding Technology and Cultivation Expertise Small-Scale Pilot Production Facility Based on the needs of the clients, strains from the library are screened for the targeted products. Following identification of suitable strains, the next step would be a sustainable cultivation method/facility for the algae. This platform assures ongoing consultation between the start-up and its clients so as to achieve the targeted products that the clients desire. At present, the start-up has algae strains that are promising in terms of their protein content, oil content and functional ingredients. Potential applications of leveraing this algal platform technology include but not limited to:  Alternative Protein Biomaterials Dietary Supplements Cosmetics Foods Nutraceuticals Pigments For potential partners, a business benefit can include the opportunities for consultation and identification of suitable algal applications that can benefit their business. This is especially relevant if partners are interested in a more sustainable source of their target products (i.e., alternative protein, biomaterials and functional ingredients). Environmental advantages include negative carbon footprint due to CO2 utilization by algae and less land usage. algae platform, biomass, functional ingredients Life Sciences, Agriculture & Aquaculture

This technology is suitable for companies looking for a probiotics delivery system with increased probiotics viability. Spray-dried probiotic powder derived from this technology can be used as dietary supplements or functional food additives for human and animal consumption. Conventional probiotics often lose viability during shelf storage and upon ingestion, especially during their transit through the gastric region. Our industrially scalable encapsulation technology can improve probiotics’ shelf life and maintain viability during their passage through the human upper gastrointestinal tract. The encapsulated probiotic product achieves qualities of gastroprotection and targeted release in the intestinal region, overall boosting the beneficial effects of probiotics on gut health. Probiotics represent a US$ 58 billion market with immense growth potential, as global consumers are increasingly invested in digestive health and means to enhance the gut microbiome. Our patented technology of encapsulating probiotics involves a modified spray-drying process and is a high-throughput, food-grade, and inexpensive technique applicable to pharmaceutical, food and animal feed sectors. The modified spray drying technique used in this technology is a facile, high-throughput and industrially preferred method to produce environment resistant encapsulation systems. Key advantages of this optimized spray drying process include: High encapsulation efficiency High probiotics viability Achieving a dried product with high powder yield This technology provides four major advantages in probiotics supplementation: Scalability of production Uses food-grade materials and hence renders the advantage of non-toxicity Offers gastroprotection of probiotics in the upper GI tract High viability over shelf-life This technology may be versatilely used for a variety of candidate probiotic microorganisms and can henceforth be applied to many different applications and markets. The encapsulated dry probiotic powder product is: 1. Applicable to both human health product lines and animal feed formulations due to its use of generally regarded as safe (GRAS), non-toxic materials 2. Compatible with incorporation of other active pharmaceutical ingredients alongside probiotics (to promote or enhance desired therapeutic outcomes) 3. Dried probiotic powder is compatible with standard pharmaceutical or dietary supplement dosage formats (e.g. capsules, tablets, or sachets) 4. Dried probiotic powder can be incorporated into functional food or beverage matrices, such as confectionaries, dairy products and instant foods. The probiotics market was valued at US$ 58 billion in 2021 and is projected to grow at a compound annual growth rate (CAGR) of 7.5% through 2030. The market is driven by a rise in health expenditure, an increasing consumer inclination towards preventive healthcare and a growing consumer awareness about the importance of the gut microbiome in influencing human health. So far, probiotics are mainly consumed via dairy-based yogurts (74% of the global retail value of probiotics), while 11% is attributed towards probiotics supplements. The market for probiotic supplements is set to expand rapidly, at a CAGR of 7%, from its market size of US$ 6.5 billion in 2021 (Grand View Research, 2021). Probiotic supplements may be consumed in the form of capsules, chewables/gummies, powders, tablets and softgels. This technology is well-positioned to develop probiotic supplements suitable for these various formats, as the dried powder product can be versatilely incorporated. Besides supplements, there is a growing trend to incorporate probiotics in different foods and beverages. Several examples of innovation here include probiotic ice-creams, probiotic sodas, probiotic beers, probiotic candies, probiotic ice, etc. This technology can be useful to encapsulate and protect probiotics from the external food or beverage matrix and prolong its survivability and functionality. The use of probiotics in animal feed sectors represents another opportunity. The global probiotics in the animal feed market was valued at US$ 4.4 billion in 2020 and is projected to grow at a CAGR of 8.8% through 2026. This technology benefits from having a high-scale and inexpensive production process, which reduces the costs of the encapsulation of probiotics. Using an industry-approved spray drying technique and food-grade materials, our encapsulation system guarantees both safety and scalability. This advanced technology ensures the probiotics' viability as they pass through the upper gastrointestinal tract and reach the gut, providing a remarkable advantage over conventional probiotics. probiotics, encapsulation, viability, shelf-life, spray-drying, high throughput Personal Care, Nutrition & Health Supplements, Healthcare, Pharmaceuticals & Therapeutics, Manufacturing, Chemical Processes, Foods, Ingredients, Processes

Grasping technology, often associated with robotics and automation, addresses the challenge of manipulating and handling objects in various environments. The primary problem solved by grasping technology is the ability to securely and accurately pick up, hold, move, and release objects with different shapes, sizes, and materials. This technology is especially crucial in situations where human intervention may be difficult, dangerous, or inefficient. Before the deployment of new models and algorithms in the real world, it would be great to test the algorithm in a realistic simulation environment first.  The technology presented is a realistic simulation environment to test a robotic system for grasping and manipulation. Using the simulation environment, the movements of the physical and virtual robots are synchronized. This is done without the need for writing additional code to control the physical robot, which makes real-world deployment seamless and easy. The grasping system is tested in simulation and can easily be deployed in the real world with visualization of real-time feedback on robotics tasks via the same design and simulation platform.   The technology has potential applications in manufacturing, warehousing, and household robotics, where improving grasp success rates is critical for enhancing efficiency and reducing costs. These environments are often cluttered and contain dynamically moving objects.  A synchronized sim-to-real platform for robotic grasping and manipulation can be incredibly useful to the industry in several ways:   Reduced Cost: Traditional methods of developing robotic grasping and manipulation systems require expensive hardware, time-consuming trial-and-error testing, and large amounts of data. A synchronized sim-to-real platform allows for much of this testing and data collection to be done virtually, reducing costs and increasing efficiency.   Improved Efficiency: With a synchronized sim-to-real platform, researchers and developers can test and fine-tune robotic grasping and manipulation algorithms in simulation before deploying them on physical robots. This can reduce the time required for physical testing and enable more efficient algorithm development.   Increased Safety: The use of simulation environments can provide a safer testing environment for robotic grasping and manipulation systems, allowing developers to test and refine algorithms without risking damage to expensive hardware or injury to human operators.   Enhanced Performance: With the ability to test and optimize algorithms in simulation, developers can achieve higher levels of performance in robotic grasping and manipulation tasks, leading to more effective and reliable systems.   Better Scalability: A synchronized sim-to-real platform can also facilitate the development of more scalable robotic grasping and manipulation systems, as algorithms and methods can be tested and refined in simulation before being deployed on a larger scale.   Overall, a synchronized sim-to-real platform for robotic grasping and manipulation has the potential to significantly improve the efficiency, safety, and performance of industrial robotic systems, leading to greater productivity and cost savings for companies.   Robotics, Grasping, Manipulation, Simulation Manufacturing, Assembly, Automation & Robotics, Infocomm, Robotics & Automation

Autonomous driving technologies hold promise of substantial manpower savings, but the technology is still not mature enough to remove the driver from the vehicle. This also hinders the deployment of autonomous systems for many business applications as the ROI (Return on Investment) is not justifiable. There are also multiple scenarios, such as firefighting or waste processing, that require the agility offered by a human operator but have worksites that can be harmful. The technology presented here offers a high-fidelity teleoperation solution platform which can control many kinds of vehicles and machinery with high quality video feed at low latency. This technology is particularly useful for autonomous vehicle or machinery related companies that want to release their fleet to the market and have the option to remove the requirement for a safety driver onboard. It is also useful for companies providing heavy machinery, or end users of heavy machinery who seek to remove operators from harmful worksites. Main features and specifications related to the technology are given below: Low end-to-end latency at < 200 msec. Low bandwidth requirement. The technology can work with 4G/5G/Long Range Wi-Fi. Inbuilt smart assistance features and multiple camera view in picture-in-picture format to make operation easy and safe. Motion and haptic feedback for better situational awareness. Potential applications for the teleoperation technology can include, but are not limited to, scenarios like – Autonomous EVs Airport support vehicles Street sweeping vehicles Prime movers Engineering machinery such as forklifts, excavators, and others. The global teleoperation and telerobotic market is expected to reach US$60.9 billion in 2023 and the expected CAGR for the next five years is 14.2%. The TAM (Total Available Market) estimation for 2023 is at US$14 billion in the logistics and autonomous mobility sectors. In Singapore, the SOM (Serviceable Obtainable Market) is estimated at US$ 62.1 million. Telerobotics covers a lot of advantages promised by autonomous mobility and does not have the drawback of uncertainties on maturity level and risks associated. The offered technology solution offers following advantages – The platform can work under 4G, 5G or long-range Wi-Fi. Wide field of view along with multiple camera views in an easy to operate configuration provide the operator with a more natural visual feedback and enhanced awareness. The video stream is further synchronised with haptic feedback to improve operator’s judgment. The platform comes with customizable buttons and controls and can be configured for multiple vehicle types and scenarios. Infocomm, Video/Image Analysis & Computer Vision, Mobility, Geoinformatics & Location-based Services

In the mid-infrared region, gases exhibit absorption spectral features that are typically two orders of magnitude stronger compared to the near-infrared region. This makes the mid-infrared quantum cascade laser (QCL) a highly suitable choice for gas spectroscopy applications. QCLs offer several advantages, including broadband spectral coverage ranging from 3 to 25μm, narrow linewidth, compact size, and robustness, which have contributed to their popularity in various spectroscopic applications. In this context, a portable gas sensor has been developed utilizing self-developed QCL arrays, covering two specific wavelength regimes: 9-10 μm and 13-14 μm. To further enhance the detection sensitivity, an artificial intelligence (AI) algorithm has been integrated into the gas sensor. The incorporation of a hollow-core fiber as a miniaturized gas cell contributes to the overall compactness of the system. By leveraging the capabilities of QCLs, this gas sensor overcomes critical weaknesses associated with existing approaches, particularly their lack of selectivity and inability to differentiate mixtures of gases effectively. We anticipate that this technological innovation will accelerate scientific research progress and prove valuable across various industry sectors. The innovation of this portable gas sensor is mainly in the laser source and beam combining approach. Compared with the commercial QCL products, the developed QCL arrays exhibited wide spectra tuning range, ultra-fast tuning speed, narrow linewidth, and eye-safe average power. To combine the laser beams in the array, a cost-efficient beam combining method has been developed. This method utilizes an aspherical lens and a series of mini mirrors to collimate the individual beams from the laser array. The system is controlled by a LabVIEW program, which simplifies its operation.  After conducting measurements, the AI algorithm automatically calculates the concentration of the target gases. This information is then displayed on the software interface, providing a convenient and user-friendly experience. The gas cell in the sensor employs a hollow-core fiber, which results in a quick analyte charging time of less than 1 minute. Furthermore, the gas sensor utilizes a broadband laser source, enabling simultaneous detection of multiple gases. The performance of the homemade QCL array is notable in terms of lasing peak and transverse mode, making it well-suited as the light source in gas spectroscopic systems. Notably, the gas sensor extends the operation wavelength regime into the ~13-14 μm region, which is advantageous for detecting volatile organic compounds (VOCs) that have strong absorption features in this range. In terms of detection limits, the gas sensor has been evaluated to achieve 940 parts per billion (ppb) for acetylene and 470 ppb for o-xylene. Primary application areas: scientific research, environmental monitoring, and industrial process control. Other areas: Indoor air quality monitoring and oil & gas. The potential products: Mid-infrared photoacoustic gas sensor, QCL-based dual-comb gas sensor, Cavity ring-down gas sensor and liquid sensors.   The global gas sensor market size was valued at USD 2.50 billion in 2021 and is expected to expand at a compound annual growth rate (CAGR) of 8.9% from 2022 to 2030. In this context, the QCL plays a pivotal role as one of the primary light sources in mid-infrared gas spectroscopy applications. Consequently, the QCL-based gas sensor has promising potential in the gas sensor market size. This technology is portable and provides both high selectivity and sensitivity with key benefit lies in three domains: Gas Sensing: this solution enables precise and accurate gas sensing, allowing for the detection and differentiation of multiple trace gases in various environments. Spectroscopy / Instrumentation: With the capability to design and create long-wavelength quantum cascade lasers, our technology is well-suited for advanced spectroscopy and instrumentation applications. IoT (Internet of Things) for Smart-Nation: By integrating this technology into the Internet of Things framework, contribute to building smarter and more efficient nations with improved environmental monitoring and management. The most critical problem of the existing technologies, such as electronic and chemical sensors, lies in their lack of selectivity. This means they are unable to distinguish between multiple trace gases unless more advanced methods like GC-MS or FTIR technology are employed. Unfortunately, these advanced methods are both bulky and expensive, restricting their usage to laboratory environments only. Quantum Cascade Laser (QCL), High sensitivity, Multi gases, Spectroscopy, Sensing system Electronics, Lasers, Optics & Photonics, Infocomm, Artificial Intelligence, Green Building, Indoor Environment Quality, Environment, Clean Air & Water, Sensor, Network, Monitoring & Quality Control Systems

Fast-moving consumer goods (FMCG) and other product components come in a wide variety of shapes, sizes and packaging configurations. During the manufacture of such products, a key challenge for automation is to effectively handle and manipulate such diverse products during production or logistical processes. Users planning to automate their production lines typically have to take into consideration the use of either multiple grippers for different product types, or incorporate an automated tool changer with added complexity and cost. To address this challenge, a Singapore start-up has developed a universal soft robotic gripper designed to manipulate a wider range of product sizes by incorporating a resizeable gripper base. Gripper adjustment is automatically carried out via an integrated computer vision system thus minimizing the need for human intervention during pick-and-place processes. The gripper's soft fingers also minimize damage to products during the gripping process. Vacuum Suction Gripper Incorporating extendable linkages in the gripper arms for resizeability, the gripping workspace remains adaptable to handle products of various sizes. The gripper arms may either take the form of fingers or suction cups configuration. With 5 vacuum cups embedded, the gripper is ideal to handle pouched products or carton boxes of various sizes. Gripper weight: 2.18kg Gripping width: 125mm to 315mm Manipulating weight: up to 10kg Actuation method: Clean, dry air up to 250kPa Operating temperature: up to 100°C Computer Vision System An integrated computer vision system provides the gripper with the ability to recognize the type, location, and orientation of the product to be picked, and commands the gripper to adjust the gripping space and pose to pick the product from the correct location. This process is fully automated without requiring human intervention. For increased utility, the computer vision system may also be configured to perform quality inspections of products being handled. The vacuum suction gripper can be used to palletize or depalletize carton boxes or pouched products (such as coffee powder, sugar packs, rice packs etc.) of various sizes up to 10kg. The computer vision system will be deployed if the working space is not in an organised condition (i.e., randomized locations and orientations of the products), such as when products are scattered in a tote bin, randomly positioned on a conveyor etc. The market value for FMCG robotic packing in the APAC market is estimated to be at USD 1.1 billion and the global market value is worth USD 7.8 billion. Sources: Cobots Transforming the Global Industrial Robotics Market—Opportunities Forecast (Frost & Sullivan) Passport, The Megabrands: The Top 100 FMCG Brands Worldwide (October, 2018) Technavio's library The reconfigurability of this gripper provides high adaptability to many applications, compared to conventional grippers with fixed gripper bases offering limited gripping ability for products of diverse shapes and sizes. Benchmarking tests have been conducted to compare the grippers with other commercially available grippers. The results showed that this universal gripper is able to provide a 22% increase in gripping efficiency. Moreover, compared to using multiple grippers and tool changers to handle different products, this one-fits-all gripper has the potential to help users save on operating costs by up to 36%. Manufacturing, Assembly, Automation & Robotics, Infocomm, Robotics & Automation