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80ft Rodriquez 2007 – Comprehensive Guide to Vessel Specifications and History80ft Rodriquez 2007 – Comprehensive Guide to Vessel Specifications and History">

80ft Rodriquez 2007 – Comprehensive Guide to Vessel Specifications and History

Get Boat
by 
Get Boat
14 minutes read
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10월 02, 2025

Check the main specs sheet and delivered performance data for the 80ft Rodriquez 2007, then study the vessel’s history to place the model in its era. This concrete approach keeps privacy of owners intact while you gather info from the builder, registry, and known refits.

Key initial figures: the main numbers sit around LOA ~24 m (80 ft), beam near 5.8 m, draft about 1.9 m, and displacement roughly 170–190 t. The guest layout typically includes 4–5 캐빈 plus crew quarters and an office for navigation and management. Fuel and water tanks align with regional operations; verify exact capacities in the builder’s catalog and the vessel log to ensure accurate planning for 바다 passages.

In the history section, expect records of service across the 바다 routes, with notable stints in france port calls as well as Mediterranean itineraries. The privacy of owners remains a priority, but registry entries reveal known details such as launch year, hull number, and major refits. The vessel’s eminence 에서 sports and luxury charter circuits is linked to its balanced design and easy handling under heavy seas. In the charter market, the vessel earns reverence as a of comfort and takes a premium role among fleets.

Whether you plan a long-season charter or a focused corporate retreat, the layout supports flexible use: multiple 캐빈 for guests, a separate office for crew and management, and shared vita zones that 느낌 calm. The atmosphere on deck 느낌 welcoming for guests and crew, with interior fabrics and wood tones that evoke quiet church-like serenity. The fort-like hull below the waterline provides resilience as winds push from the 바다.

Beyond sources you consult, check the yard brochures and port authority info. The path from samarafrance in the ownership chain shows how privacy is respected while the vessel maintains eminence in luxury yachting. This guide helps you assess performance credentials, interior comfort, and life on board in a way that 전달됨 clear value for blue-water voyages.

Beam-Centric Vessel Specifications and History

Begin with a concrete recommendation: fix the beam as the primary stability reference, document Bmax, and set a target beam-to-length ratio (BR) around 0.28–0.32 for mid‑sized motor yachts, then validate with a hydrostatics run. This year, the approach offers immediate clarity for deck layout, weight distribution, and ballast planning, keeping the vessel resilient in aeolian winds and gusts.

These decisions shape the full profile of the hull. The king of stability is the beam, because it governs righting moment across sea states. A wide, well‑proportioned beam supports expansive deck space without sacrificing longitudinal efficiency, and it enables stylish, open-plan arrangements that still perform well in rough conditions. An artisan hull designer can balance deck width with a compact superstructure to keep the center of gravity low and the life aboard comfortable.

Key considerations lie in how beam interacts with the superstructure, the deck, and machinery. The superstructure should sit within the beam envelope to minimize exterior weight aft or forward, and the deck should remain unobstructed where possible to preserve an open-plan feel that loves natural light and flow. These tactics offer predictable trim behavior when you add ballast or crew load, and they reduce splash sensitivity on landing seas near cabo ports or exposed coasts.

  • Bmax: maximum beam measured at or near the widest hull section, documented with multiple heel angles.
  • BR: beam-to-length ratio; aim for 0.28–0.32 for a balance of stability and speed on a vessel around 80 ft LOA.
  • BWL: beam at the waterline under full load to capture stability margins and plan for ballast distribution.
  • GMt and GZmax: meta-stability metrics from hydrostatics and seakeeping models; verify with table‑tests and seakeeping software.
  • Weight distribution: keep heavy systems near midship to preserve the open-plan layout without inducing pitch sensitivity.
  • Superstructure placement: align weight of the open-plan areas and stylish interiors within the beam footprint to avoid excessive top‑weight moments.
  • Deck layout: ensure clear passageways and ample freeboard while maintaining a full deck footprint for safety and life onboard.
  • Systems routing: route electric and mechanical runs along the beam’s centerline to minimize sideways load changes and vibration transfer.
  • Expansive deck options: design rail heights, sunpads, and tender storage to maximize usable space without widening the beam beyond target values.
  • Operational checks: perform immediate post‑launch stability tests, including heel and trim verification under simulated loads and adolescent crew movement.
  • Maintenance notes: record annual beam measurements to detect hull deformation or ballast shifts early, preserving long-term performance.

These concepts translate into practical steps during design, charter, and operation. If youre evaluating a vessel or planning a refit, focus on open-plan areas that leverage the beam for stability, precision in weight targets, and a cohesive life aboard that loves expansive space without compromising maneuverability. The maverick approach of balancing a stylish superstructure with a robust beam results in a vessel that handles a variety of conditions–from aeolian gusts to calm seas–while still offering comfortable, loveable spaces for the crew and guests.

History shows how beam evolution shaped vessel behavior. In the late 19th and early 20th centuries, builders experimented with broader beams to improve stability, then refined hull forms for efficiency. Modern guides, including the 80ft Rodriquez 2007 compilation, emphasize that beam decisions drive both speed potential and sea‑keeping. The trend moved toward expansive decks and midship‑heavy weight distribution, a pattern that remains relevant for contemporary designs, especially for motor yachts that need to balance performance with life on board. These lessons helped develop recommended BR ranges, open-plan layouts, and open, airy interiors that still ride smoothly in a wide range of conditions. cabo ports and coastal routes illustrate how beam decisions affect operation and comfort in real environments, reinforcing that the beam is indeed central to the vessel’s character and capability.

Finally, a practical note for ongoing projects: start with a precise survey of Bmax and BWL, verify BR against the intended displacement at full load, and run a stability check under representative crew and equipment loads. Always document changes, and keep the crew engaged in loading scenarios to ensure stability margins stay within targets. Youre looking at a design path that combines technical rigor with thoughtful lifestyle spaces, offering a reliable, capable, and enjoyable vessel for years to come.

Official beam values: reading the spec sheet for LOA, beam, and draft

Start with the beam figure on the spec sheet and treat it as the primary width constraint for docking and interior layout. For an 80ft Rodriquez from 2007, the max beam typically hovers around 20 ft (6.1 m). 이 폭은 선체 전체에서 가장 넓은 지점을 나타내며, 보통 선미부에서 측정되며, 선의 형태를 결정하는 데 중요한 역할을 합니다. 오픈 플랜 거실은 상대적으로 에 위치합니다. 초상구조. 만약 칸 영화제 중 실수에 대한 계획을 세우고 있다면 festival 또는 다른 바쁜 시간대에, 그 빔은 쉼터의 폰툰에 얼마나 가까이 접근할 수 있을지 결정하는 데 도움을 줍니다. 여기에서, 실내는 종종 갑판 주위로 흐르며 전달합니다. everything 넓은 응접실에서 조용한 손님을 위한 안식처로.

LOA와 초안을 나란히 읽으십시오. LOA는 총 길이이고, 초안은 키엘 또는 가장 깊은 부속 장치까지의 깊이를 나타냅니다. 만재하중 상태의 일반적인 80피트 로드리게스 장비의 경우, 초안은 약입니다. 6.5 ft (2.0 m), 다양한 버전으로 나타날 수 있습니다. 7.0 ft 고출력 설정을 사용하는 경우입니다. 수심이 얕은 항구가 유리한 조건이라면 시트 목록에서 설계 흘수 또는 볼라스트 조정 흘수를 확인하십시오. 목록에는 계획 조건 하에서 더 좁은 수치가 표시될 수 있습니다. 요트가 잠을 자면 eight, 객실 간 복도 및 문의 폭을 확보하는 것, 앤 오픈 플랜 salon, 그리고 승무원 구역은 안전한 흐름을 허용합니다. 이는 난간을 설치하는 위치와 선실 내부 칸막이의 위치에 영향을 미칩니다. 초상구조. 더 짧은 경로, 예를 들어 여행을 가는 경우 사마라 혹은 칸의 해안이라면 더 얕은 흘수를 선호하고 약간 더 좁은 beam 접속을 간편하게 유지하려면 그렇지 않으면 위험을 감수하게 됩니다. 과잉 거친 바다에서의 흔들림과 덜 안정적인 승차감. power 프로펠러 출력 및 선체 형태는 실질적인 흘수선에 영향을 미칩니다. 깊은 키엘은 안정성과 더 단단한 승차감을 제공할 수 있지만, 보호 구역과 개방된 해역 사이의 통과 경로를 줄일 수 있습니다.

이러한 모델(예: )을 비교하기 위해 Arcadia 또는 에미넌스 lines, check whether the specs call out a broader beam to support an 오픈 플랜 메인 데크. 빔이 넓으면 레이아웃에 포함될 수 있습니다. -size master 및 전담 안식 라운지; the 새로운 versions balance space with clearances between the 초상구조 및 갑판 장비. 계획이 될 때 coming, 승무원과 손님들은 잘 작동하고, power 그리고 다양한 조건에서. a를 위해 매버릭 소유자, 구성은 다음과 같습니다. make decisions: keep eight 손님들이 편안하게 지내거나 모이십시오. everything 침실에서 편안히 잠을 자는 동안 생활 공간으로 통합됩니다. 사마라 디자인 또는 에미넌스 선체는 신중한 무게 배분을 통해 유사한 레이아웃을 제공할 수 있습니다. power 식물과 기관석.

최대 선폭 대 하부선 폭: 안정성과 여객 공간에 미치는 영향

안정성과 내부 공간의 균형을 이루는 수선선 보폭을 목표로 합니다. 80~120m 규모의 메가요트의 경우, 수선선 보폭은 약 12~14m, 최대 보폭은 약 18~20m를 목표로 하는 것이 좋습니다. 이러한 설정을 통해 넓은 공간의 레이아웃, 넓은 통로, 프리미엄 클럽 라운지, 스위트룸을 지원하면서도 해상성을 유지할 수 있습니다.

수면선 보의 폭은 수면을 확장하여 초기 안정성을 형성합니다. 최첨단 접근 방식은 더 넓은 수면선 보의 폭이 와인딩 조건에서 작은 힐에서 복원 모멘트를 증가시켜 선상에서의 편안함을 개선하고 갑작스러운 피치를 줄인다는 것을 보여줍니다. 그러나 동일한 보의 폭은 젖은 표면과 선체 항력을 증가시켜 연료 소비를 늘리고 최고 속도를 제한합니다.

모노헐 메가요트 대 쌍동선: 카보와 같은 항구나 아즈르 해안을 따라 잦은 승하선을 위한 가족 렌터의 경우, 쌍동선은 희귀한 넓은 플랫폼과 선체 사이의 공간을 제공하여 손님 데크와 야외 라운지를 확장할 수 있습니다. 클래식 메가요트는 균형 잡힌 워터라인과 최대 빔으로부터 이점을 얻어 실내 공간을 넓게 유지하면서도 파도 속에서 예측 가능성을 유지합니다. 유연한 레이아웃을 특징으로 하며, 선체 사이의 공간은 클럽, 프리미엄 스위트, 드레싱 룸을 지원합니다.

단계별 설계 접근 방식: 1) 미션 정의: 헌장, 클럽 모임 및 축제 여정; 2) 다양한 해상 상태 및 바람 조건에서 파라메트릭 안정성 모델 실행; 3) 갑판 공간 배분 평가: 탈의실, 스파, 프리미엄 스위트 및 프리미엄 객실; 4) 대규모 운영을 위한 승선 보드 및 접근 지점 계획; 5) 다양한 항구 및 다줄 만에서 발사 및 회수 시뮬레이션; 6) 플랫폼에서 해상성 테스트로 검증.

게다가 균형이 핵심입니다. 최대 빔이 선체 수면선과 일치하여 안정성을 저해하지 않으면서 해양을 가로지르는 공간을 제공하는 희귀한 기회가 발생합니다. 객실 내 휴식을 위해 설계된 와이드바디 선박으로, 프리미엄 인테리어, 박수받을 만한 승차감, 가족 친화적인 레이아웃을 자랑하며 해양 간 편안한 크루즈를 제공합니다. 해안 축제 노선이나 카보 및 다즐러 해안선을 순환하는 오프쇼어 메가요트 대여 여부에 관계없이 말입니다.

선체 및 구조: 보의 영향이 해상성 및 강성에 미치는 영향

80ft 함선에서 해상성 및 강성을 균형 있게 유지하면서도 퍼포먼스를 손상시키지 않으면서 부드러운 승차감을 제공하기 위해 22–23ft 정도의 빔을 목표로 하십시오.

Beam controls waterplane area and the initial righting moment. Those with a wider beam gain improved roll resistance and deck stability in chop, enabling a comfortable layout with a panoramic view and relaxation zones. A narrower beam reduces waterplane, which can boost top speed, but may increase heel sensitivity and deck flex in heavy seas. For cutting-edge designs, keep a beam-to-length ratio near 0.28–0.32 to maintain stiffness while preserving interior space.

Stiffness relies on meticulous framing, continuous stringers, and bulkheads that work with the hull skin to carry torsional loads from the motor and equipment. A dazur deck finish can enhance aesthetics, but it does not affect stiffness; the structure does. The newest hulls fuse composites with high-modulus fibers to deliver rigidity without excessive weight. Such choices translate into a confident, responsive feel that supports both performance and comfort for those long days at sea, delivered with style.

Interior and relaxation benefit from a wider beam: a plush, stylish arrangement with generous common areas becomes more feasible, while still leaving room for practical storage and a fully equipped galley. The prix of this option is justified by improved durability and resale value, and the result is a vessel that performs like a single, perfect platform on the water. Welcome those improvements with a design that keeps the crew comfortable and the captain in command, like you expect from the newest motor-driven models that power live-aboard experiences.

Beam (ft) Seaworthiness impact Stiffness and deck rigidity 참고
20–21 Lower waterplane, tender initial stability in rough seas Lower torsional stiffness, more flex Lightweight option; may limit interior luxury without careful layout
22–23 Balanced stability, comfortable ride in chop Moderate deck rigidity, predictable response Recommended option for most vessels with plush interiors
24–25 High stability in gusts, less heel Higher stiffness, confident tracking Premium comfort, larger interior spaces; check weight and price (prix)

In practice, assess the details of your mission: coastal cruising with a panoramic cabin or long-range, live-aboard passages with a heavy motor installation. A meticulous approach to beam, hull form, and internal layout yields a vessel that feels cohesive, like it’s designed as one platform rather than a collection of parts. Such attention makes the ride comfortable, the handling precise, and the overall experience welcoming for those who demand reliability and luxury in equal measure.

Interior planning: optimizing layout, storage, and comfort within beam limits

Interior planning: optimizing layout, storage, and comfort within beam limits

Recommendation: Build a beam-conscious spine: define three zones–entertaining lounge, relaxation sanctuary, and galley with efficient storage. Keep main circulation aisles around 0.75–0.85 m (2.5–2.8 ft) to allow two-way movement during week entertaining and busy cruise days. Align seating and dining to preserve sightlines to the ocean and maintain a clear route to the cabin for overnight guests.

Storage: deploy hidden compartments under settees and the bed platform. Add lift-top trays in the coffee table and shallow overhead lockers with quiet-close hinges. Reserve bulk storage in higher lockers and specialized bins under deck. A flexible option is a three-tier system: daily items in accessible drawers, seasonal gear in higher lockers, and oversized gear in the bilge or under floor panels.

Layout optimization: keep the main deck free of clutter by using a modular seating system that reconfigures for three moods: casual conversation, formal dining, or entertaining. Maintain a single, service-focused area to improve crew flow during refit and cruise operations.

Materials and finishes: choose durable, high-end veneers with water-resistant coatings and non-slip textures in key walkways. Use light, warm tones to support vita and relaxation and sanctuary. Include brand accents that echo the vessel theme, and blend mala and malia textiles to add texture. Keep the palette neutral to surround cabin spaces with coherence and prime aesthetics.

Lighting, acoustics, and comfort: balance natural daylight with skylights and controllable LED layers. Use dimmable fixtures along coves and panel edges. Install acoustic panels in the saloon to decrease echo and improve conversation. Ensure escape lighting is integrated along stairs and access corridors and that it remains easy to reach from the main seating.

Implementation steps for refit: begin with a beam survey, mark three zones, and design a storage plan with under-bed bins and a retractable dining table. Run a one-week trial on typical week conditions to verify traffic flow and space feel, then opt-out or revise as needed.

Operational constraints: docking, marinas, and shallow-water navigation by beam

Make slip width at least 1.25x your beam; for an 80ft Rodriquez with a beam of roughly 18–20 ft, target slips 22–25 ft wide. Use forward and aft springs and generous fenders to hold the boat steady. Inclusive planning with marina staff and lauren’s hosting checklist keeps these operations smooth, making those prep tasks easier for crew.

While navigating shallow-water sections, steer by beam to minimize wash and squat; keep a centerline course within the channel, and verify with depth alarms that depth stays at least 3x draft in the narrowest segments.

Marina selection should favor larger marinas with expansive finger piers, especially for large 80ft vessels; secure slip length of 90–95 ft and width of 22–25 ft. Check prix per night and seasonal rates, and choose places that offer reliable water and power, plus waste facilities. For those charting destinations, consider well-equipped hubs along arcadia coastlines and mala routes.

Onboard layout matters: cabins and bathrooms must be accessible from the cockpit for smooth mooring operations; ensure stylish, functionalities-rich cockpit and deck spaces; the finest materials support relaxation when guests gather in a custom sanctuary.

Operational tips: plan hosting for destinations like arcadia and mala; map inclusive routes; use calm weather windows; ensure the 80ft yacht has a spacious, expansive cockpit and larger salons; manage currents and wind with thruster control and disciplined line handling.