--- source_url: "https://il.linkedin.com/company/combe-group?utm_source=openai" title: "Combe Group Israel | LinkedIn" mirrored_at: 2026-08-25T03:01:44.393Z host: il.linkedin.com cited_in_42a: true mirror_canonical: "https://index.42a.ai/il.linkedin.com/company/combe-group__q__utm_source_openai" --- > **Original source:** https://il.linkedin.com/company/combe-group?utm_source=openai - [ הצגת ‏כל ‏49‏ העובדים‏ ](https://www.linkedin.com/signup/cold-join?session_redirect=https%3A%2F%2Fwww%2Elinkedin%2Ecom%2Fsearch%2Fresults%2Fpeople%2F%3FfacetCurrentCompany%3D%255B3066882%255D&_l=iw&trk=org-employees_cta_face-pile-cta) ## עלינו Combe Group | Smart Infrastructure for Sensitive Industries Since 1922, Combe has been engineering complex systems and delivering turnkey projects across critical sectors — from healthcare and microelectronics to food processing and advanced manufacturing. We specialize in planning, execution, and ongoing maintenance of infrastructure where precision, safety, and compliance are non-negotiable. Our group includes divisions focused on cleanroom systems, process piping, medical gases, and engineering for high-sensitivity environments — with proven capabilities across Israel. When infrastructure becomes mission-critical — we make it work. תעשייה Construction גודל החברה 201-500 עובדים משרדים ראשיים Hadera סוג בבעלות עצמית הקמה 1922 ## מיקומים ## עובדים ב- Combe Group Israel ## עדכונים - ‏‏935‏ עוקבים‏ ‏4‏ ימים A fragmented project creates endless follow-ups, conflicting updates, and late surprises. A strong EPC partner creates clarity, speed, and one version of the truth. When engineering, procurement, fabrication, installation, commissioning, and maintenance are handled by separate teams, the client often becomes the connection point between every decision. Time goes into chasing updates, resolving scope gaps, and translating the same issue across multiple contractors. An integrated EPC model gives the project a different operating rhythm. The people designing the work understand how it will be fabricated. The teams sourcing materials see the programme. The site team receives components prepared for the real installation environment. Risks can be raised early, assessed across the full scope, and resolved before they become expensive delays. For more than a century, Combe has brought engineering, project management, controlled manufacturing, execution, and ongoing support into complex industrial environments. When a facility needs clear ownership from the first drawing through long-term operation, Combe is the right address. - ‏‏935‏ עוקבים‏ ‏5‏ ימים As industrial facilities scale, the components required to build them are reaching unprecedented sizes. In 2026, the demand for heavy lift and specialized transport is surging. Mega-projects in the energy, petrochemical, and semiconductor sectors increasingly rely on prefabricated modular construction. Instead of building complex systems on-site, massive utility skids and reactor vessels are built in factories and transported whole. Moving a 500-ton, multi-story modular unit across active highways or positioning it perfectly within a congested construction site is an engineering discipline of its own. It requires millimeter-perfect lift plans, advanced center-of-gravity calculations, and deep logistical coordination. A single miscalculation during a heavy lift doesn't just delay a project; it compromises millions of dollars of equipment. Logistics at this scale is not about moving a heavy object. It is about applying exact, calculated physics to overcome extreme logistical constraints. - ‏‏935‏ עוקבים‏ ‏1‏ שבועת In January 2026, the Ministry of Health issued emergency preparedness directives to every hospital in the country. By June 2026, it raised the alert level to maximum across all facilities nationwide. Here is the question nobody is asking publicly: can the physical infrastructure inside those buildings actually support what is being demanded of it? A hospital operating under mass casualty conditions places simultaneous, extreme demand on every mechanical system in the building. Medical gas lines, backup power, negative-pressure HVAC, and fire suppression must all perform at once, without a single point of failure, under conditions far beyond normal operating parameters. Directives can be issued overnight. Infrastructure takes years to build correctly. The hospitals that will hold under pressure are the ones where the worst-case scenario was already engineered into the walls long before any directive was ever written. - ‏‏935‏ עוקבים‏ ‏1‏ שבועת Israel produces 670,000 cubic meters of desalinated seawater every single day from a single facility. Sorek II is one of the largest desalination plants ever built anywhere on earth, and it is already operating at full capacity. The government has now set the next target: 2.3 billion cubic meters of desalinated water per year by 2050. Israel is planning to manufacture a significant portion of its national water supply from scratch, using seawater as the raw material. What makes this engineering achievement extraordinary is what happens underground. Moving billions of cubic meters of highly pressurized, corrosive seawater through a treatment facility requires specialized metallurgy, high-grade orbital welding, and process piping systems built to withstand some of the most aggressive operating conditions in the industrial world. Israel proved that water scarcity is an engineering problem. The next chapter of that proof is already under construction. - ‏‏935‏ עוקבים‏ ‏2‏ שבועת Leviathan and Tamar field expansions are set to push Israeli natural gas output above 3 billion cubic feet per day in 2026, a new national record. The country simultaneously approved a $35 billion supply deal with Egypt and launched a fresh Mediterranean exploration tender in July 2026. The offshore story is extraordinary. The onshore story is more complicated. Israel’s national gas transmission network spans approximately 900 kilometers of pipeline, built and expanded over decades for production volumes that looked very different from today’s reality. As offshore output climbs to record levels, the pressure on transmission infrastructure, compressor stations, and distribution networks grows with it. The value of a gas field is ultimately determined by the integrity of the system that carries it to market. Record production numbers mean nothing if the infrastructure moving that gas cannot keep pace with what is being asked of it. - ‏‏935‏ עוקבים‏ ‏3‏ שבועת Rafael is expanding Iron Dome production. Elbit closed 2025 with a record $28.1 billion order backlog. Israel’s semiconductor sector now employs 45,000 people across more than 250 active companies. Government incentive programs are directing all of this growth toward the Negev. The investment is real, the ambition is clear, and the construction is already underway. What rarely appears in the announcements is the infrastructure gap. Advanced defense manufacturing, pharmaceutical cleanrooms, and semiconductor facilities in the periphery demand the same precision engineering as anywhere else in the world. The difference is that in the Negev, the supporting industrial ecosystem, the specialized contractors, the utility networks, and the mechanical infrastructure, is being built in parallel with the facilities themselves. Getting it right from the beginning is the only option, because retrofitting critical infrastructure after the fact is always more expensive, more disruptive, and more dangerous than building it correctly the first time. [Rafael Advanced Defense Systems](https://il.linkedin.com/company/rafael-advanced-defense-systems-official?trk=organization_guest_main-feed-card-text) | [Elbit Systems](https://il.linkedin.com/company/elbitsystems?trk=organization_guest_main-feed-card-text) - ‏‏935‏ עוקבים‏ ‏3‏ שבועת With the €1 billion LIFE Clean Energy Transition program and cross-border projects like the German-Dutch hydrogen pipeline advancing in 2026, the continent is actively laying the groundwork for industrial decarbonization. But hydrogen is a notoriously difficult molecule to transport. It is the smallest element on earth, highly prone to leaking, and can cause severe embrittlement in standard steel pipes over time. Building a hydrogen-ready pipeline network requires specialized alloys, advanced non-destructive testing (NDT), and certified welding procedures that exceed standard natural gas requirements. You cannot simply repurpose legacy infrastructure and hope it holds. The energy transition relies entirely on the integrity of the process piping. Cleaner energy requires uncompromising execution. - ‏‏935‏ עוקבים‏ ‏1‏חודש Pending applications hit 27,000 megawatts, three times the entire average electricity consumption of the Israeli economy. Let that land for a second. The grid has already committed 1,500 MW to previously approved facilities. That alone will represent 10% of national power demand by the early 2030s. The new wave of applications would require double the country's all-time peak consumption. The Electricity Authority had no choice but to stop the clock. This is the moment the industry has been warned about. The data center boom is, at its core, a power infrastructure problem. Every AI cluster, every GPU rack, every hyperscale facility needs more than a building. It needs a guaranteed, massive, stable power supply. And that supply depends on a grid built for a completely different era. Every major infrastructure wave in history hit this wall. The moment demand outpaced the grid's ability to absorb it. What comes next is always a more disciplined, more engineered version of the same ambition. - ‏‏935‏ עוקבים‏ ‏1‏חודש An amateur designs a system to work perfectly under ideal conditions. A professional designs a system to survive when everything goes wrong. We call it the architecture of contingency. When engineering the medical gas manifold for a trauma center, or the redundant cooling loop for a hyperscale data center, the primary design is only the beginning. The real engineering happens in the margins of failure. What happens if the primary power grid drops? What happens if a critical valve seizes? What happens if the ambient temperature spikes ten degrees beyond the historical maximum? You have to build the backup, the bypass, and the failsafe directly into the physical infrastructure. You must engineer the system to fail gracefully, isolating the issue without bringing down the entire facility. We don't just build for the best-case scenario. We build for the absolute worst day the facility will ever face, ensuring that when that day comes, the infrastructure holds the line. - ‏‏935‏ עוקבים‏ ‏1‏חודש A hospital built in the 1980s cannot support the medical technology of 2026. Across the globe, health systems are funneling billions into modernizing aging campuses. While new architectural facades look impressive, the critical upgrades are happening behind the walls. Legacy MEP (Mechanical, Electrical, and Plumbing) systems are being pushed to their absolute limits. Expanding an ICU or adding a new surgical wing requires completely overhauling the piped medical gas systems, upgrading the HVAC to handle stringent negative-pressure requirements, and installing massive redundant power backups. Executing these upgrades in an active, operational hospital is incredibly complex. It requires meticulous phasing, rigorous infection control during construction, and seamless integration with existing infrastructure. \*The images below show real Bio Combe projects in active hospitals, including new architectural bedhead units, centralized medical gas systems, new medical gas pipeline installations, and ceiling-mounted medical booms integrated into modern patient care environments. Modernizing a healthcare facility means replacing its vital organs while keeping the patient alive. It demands a level of engineering precision that leaves absolutely nothing to chance. ## הצטרף עכשיו כדי לראות מה חסר לך [הצטרף עכשיו](https://www.linkedin.com/signup/cold-join?session_redirect=https%3A%2F%2Fwww%2Elinkedin%2Ecom%2Fcompany%2Fcombe-group&_l=iw&trk=public_biz_promo-join) ## דפים דומים