SOO SIS_Final Draft 11MAR2026..docx

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This Call for solutions is for Shipboard Isolation Systems (SIS)
Solicitation number
W911QY-26-S-SBIS-01
Issued by

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Statement of Objectives Summary

This is a Statement of Objectives (SOO) for the Shipboard Isolation System (SIS) program, issued by the Capability Program Executive for Chemical, Biological, Radiological, and Nuclear Defense (CPE-CBRND) and Joint Project Manager for CBRN Protection. The Government seeks prototypes to rapidly test and evaluate solutions for isolating and quarantining personnel aboard United States Navy vessels to mitigate the spread of communicable diseases and biological threats. The SIS must accommodate a standard hospital ICU bed, maintain negative pressure of 2.5 Pascals with 12 air changes per hour through HEPA filtration (99.97% at 0.3-micron particle diameter), provide head-to-foot visibility and glove ports near the patient's head and torso for care, include utility ports for cables and hoses, operate on 120-240V power, remain stable in maritime conditions with provisions to secure the bed to D-rings, fit through Navy watertight doors (26 inches wide by 66 inches tall) for storage, achieve FDA 510(k) clearance, and withstand harsh environmental conditions per MIL-STD-810. Individual operational components must not exceed person-portable lifting limits per MIL-STD-1472, and the system must be capable of 2-week continuous operation.

The Government intends to award up to three prototype agreements under 10 U.S.C. Section 4022 using a phased approach. Phase I requires delivery of 15 prototypes within 90 days of award for performance testing against specified criteria including operational size and weight, negative pressure maintenance, air exchange rates, filtration efficiency, system alerts, liquid containment, patient access, equipment ports, power connectivity, electromagnetic effects, noise levels (≤60 dBA), maritime stability, storage configuration, vibration resistance, environmental durability, shelf life (5+ years), and material compatibility with 9% calcium hypochlorite disinfectant. Phase II, following downselection based on Phase I test results and user feedback, requires delivery of up to 15 additional prototypes within 60 days for operational evaluation including logistics and maintenance demonstrations. Upon Phase II completion, one solution will be selected for potential follow-on production of up to 150 systems. Contractors must submit detailed test plans, cost estimates (production and life-cycle), delivery schedules including monthly production capacity, packaging and logistics information, manufacturing capability statements, Berry Amendment compliance documentation, and technical data packages with Government Purpose Rights preference for technical data and software.

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DISTRIBUTION A. Authorized for public release; distribution is unlimited.

1.0 PROJECT TITLE: Shipboard Isolation System (SIS)

2.0 BACKGROUND/DESCRIPTION:

The SIS program on behalf of the Capability Program Executive Chemical, Biological, Radiological, and Nuclear Defense (CPE-CBRND) and Joint Project Manager for CBRN Protection is seeking prototypes to rapidly test and evaluate viable solutions to mitigate, contain, and prevent the spread of communicable disease on United States Navy (USN) vessels. SIS will provide the capability to temporarily isolate or quarantine personnel aboard multiple USN ship classes, effectively preventing the spread of biological threats. The SIS will align with the USN priorities of enabling isolation capabilities for individuals who are experiencing symptoms of a communicable disease (i.e., biological warfare agent (BWA) or infectious disease) and/or have been exposed, or presumed to have been exposed, but are asymptomatic. Isolation and/or quarantine in the SIS will commence based on intelligence and warning, or upon detection for presence of a biological agent and in accordance with (IAW) guidelines defined in NTRP 4-02.10 para 4.3.3.

Recognizing the diverse needs of various ship classes and potential scenarios, it is anticipated a Family of Systems (FoS) may be required to address the USN’s requirement for individual personnel isolation and quarantine. This SIS project will focus on delivering a rapid, readily available solution to address the Navy’s requirement for an Individual Isolation and Quarantine capability. This initial effort will pave the way for the broader FoS development, ensuring comprehensive shipboard protection against biological threats.

The SIS program will develop performance specifications based on the Pre-decisional Concept of Employment requirements expected to be evaluated during the course of the program. The Government intends on making multiple awards for SIS solutions based on availability of Government funding.

A prototype is considered successful if it meets the following criteria outlined below and in Attachment 1:

Table 1: Prototype Criteria

Requirement
Threshold
Operational Size
System will fit a regular sized hospital ICU bed
Operational and Storage Weight
Individual components will comply with the person-portable lifting and carrying limits specified in MIL-STD-1472.
Patient Access
System must provide visibility of the occupant from head-to-foot.

System will include glove ports located near patient head and torso to enable proper patient care.

Utility ports for cables/hoses.

Power
3 pronged plugs with capabilities to support 120v power.
Biocontainment
0.01 inches of water gauge / 2.5 Pascal.

Airflow into containment and exhausted out through HEPA filter

12 air changes per hour (ACH)

99.97% at 0.3-micron particle diameter.

FrAir Filtration System
The system must be able to visually and/or audibly indicate system operations.
Shipboard Adaptability
The system must remain stable throughout maritime conditions and have provisions to secure the bed to D-rings embedded in the ship deck.
Packaging
The SIS shall be packaged in accordance with MIL-STD-2073-1
Storage Size
Storage containers shall fit through quick acting water-tight doors (26 inches wide x 66 inches tall).
Protection during storage
The SIS storage containers shall be watertight when tested in harsh environments per MIL-STD-810
FDA
The system shall acquire FDA 510(k) clearance

The Government intends on making multiple prototype awards under Title 10 Section 4022 for readily available SIS solutions based on availability of Government funding.

Follow on Production Authority

In accordance with 10 U.S.C. 4022, and upon a determination that the prototype project for this transaction has been successfully completed, any competitively awarded prototype Other Transaction Authority (OTA) as a result of this Call for Solutions may result in a single award of a follow-on production contract, or transaction without the use of competitive procedures. If follow-on production is pursued, the potential magnitude could include up to 150 systems in support of operations and sustainment.

3.0 STATEMENT OF OBJECTIVES (SOO):

This Statement of Objectives will lead to the procurement of a system for assessment that will facilitate isolation and quarantine by encapsulating a patient on a shipboard ICU hospital bed or Acute Care Ward bed, or encapsulating the patient and bed, while allowing for provider care via access ports/windows. The system will maintain negative pressure to contain airborne pathogens as well as provide a physical barrier between the medical provider and any fluid-borne pathogens.

SIS will minimize medical equipment contamination, and the requirement for extensive disinfection, by providing cable/wire access through ports while allowing auxiliary equipment to remain external to the set up. The system will allow for the quick and secure delivery of food or other personal items for the patient as well as materials for routine procedures and the removal of waste or other items without breaking the airborne isolation precautions.

Contractors shall include test plans and reports and any other relevant documentation to support claimed performance characteristics including maintaining negative pressure, filtration, patient and equipment access, and operational size and weight. In addition, contractors shall disclose any unique test methods required to assess the performance of their solution.

The contractor will use this SOO as a basis for preparing a draft Statement of Work (SOW), which will be included as an integral part of the proposal. The contractor shall propose a delivery schedule in the SOW to include the number of systems that can be produced per month. The contractor shall also provide logistic details including packaging, handling, storage, and transportation requirements, as well as logistical footprints and shelf-life estimates.

The Government requires sufficient data rights to operate, maintain, and sustain the SIS. The Government's preference is for Government Purpose Rights for all technical data and software developed with Government funding under this effort, for technical data related to interfaces (physical, electrical) necessary to comply with Modular Open System Approach (MOSA) requirements including to connect the SIS to shipboard and medical systems, and also for technical data related to form, fit and function (FFF) and operation, maintenance, installation, and training (OMIT). The specific data deliverables (e.g., as-built drawings, operations manuals, specifications) and IP licenses will be negotiated for each phase.

The contractor shall include in a table form, its data rights assertions for all technical data and computer software (including non-commercial technical data and non-commercial computer software as well as commercial technical data and commercial computer software) being provided to the Government with less than an unlimited or unrestricted rights license and explain how the approach will result in the best approach, considering life cycle costs. The Government will consider the impact of the data rights assertions in making selection decision(s). Please note that the Government reserves the right to evaluate any proposed approach that provides less than Government Purpose Rights (GPR) for the prototype design documentation and/or does not facilitate competitive procurement of hardware maintenance/sustainment services for SIS, described herein, negatively and use that information as part of its selection decision(s).

The Contractor shall provide the cost estimate in a format that allows for clear evaluation and comparison, ensuring completeness and accuracy. If possible, include assumptions, methodologies, and any relevant supporting documentation used to derive the estimate.

1. Production Costs

a. Estimated costs for full-scale production, including materials, labor, and compliance with FDA 510(k) clearance and Berry Amendment requirements.

2. Life-Cycle Cost Estimate (LCCE)

a. A comprehensive assessment of the system's affordability and long-term sustainment costs, including maintenance, operational support, and disposal.

3. Additional Costs

a. Any other costs associated with meeting the requirements outlined in the Statement of Objectives (SOO) and achieving successful completion criteria for follow-on production.

Technical maturity, item cost and performance will be assessed during submission evaluation.

The Government will utilize a phased approach where testing and evaluation will be conducted in two (2) phases. The Government intends to make up to three (3) prototype awards, all of which will undergo Phase I prototype performance testing. Upon completion of Phase I testing, the Government will downselect contractors to continue to Phase II. This decision will be based on final Phase I test results, early user feedback, affordability of the prototype, and the availability of funds. The evaluation criteria for prototype selection, as outlined in Table 1.

Table 1: Evaluation Criteria for Prototype Selection will guide the downselect process. Upon completion of testing on the Phase II prototypes, one solution will be selected to move forward into production based on all test results, user feedback, and affordability of the prototype.

The following objectives are required by the Government for each delivery:

Phase I Objective (15 prototypes)

The contractor shall deliver up to 15 prototypes for Phase I testing within 90 days after award. Following verification of biocontainment requirements and a user touch point to down select prototypes to continue on to Phase II. Table 2 below outlines the test objectives and methodologies and the criteria for downselect.

Table 2: Phase I Criteria

Requirement
Test Objective
Test Method
Primary Criteria
Secondary Criteria
Operational Size
Evaluate system operational size. Verify ICU bed enclosure and surrounding space.
Laboratory Testing/EUT
Pass/fail at Threshold
Operational Weight
Evaluate individual component weight
MIL-STD-1472
Pass/fail at Threshold
Negative Pressure
Assess pressure during mission operations
Test Plan, Centers for Disease Control and Prevention Morbidity and Mortality Weekly Report, Vol. 54 No. RR-17, 30 December 2005
Negative pressure differential of 2.5 Pascals
Higher than 2.5 Pascals but not to exceed 12.5 Pascals
Air Exchange
Assess air changes per hour

(CFM x 60)/Volume

12 ACH
More is best
Directional Airflow
Assess airflow direction
Laboratory Testing/EUT
Pass/fail
Filtration Efficiency
Assess filtration efficiency during mission operations
DOE-STD-3025-2022
99.97% at 0.3-micron particle diameter
More is best
System Interruption Alert
Evaluate alarm(s) when pressure increases above limits
Laboratory Testing/EUT
Alert system visually and/or audibly when pressure differential is not within limits
Visual and audible alerts
Liquid Containment
Demonstrate containment
Laboratory Testing/EUT
No leakage
Set up
Demonstrate set up requirements
Laboratory Testing/EUT
2-person
Access
Evaluate patient entry and exit
Laboratory Testing/EUT
Pass/fail at Threshold
Evaluate patient access through arm ports
Laboratory Testing/EUT
Full patient access

Evaluate Patient Visibility

Head to foot visibility

Evaluate Equipment ports

≥5 cable/hoses; equipment/food

Power
Demonstrate power connectivity
Laboratory Testing/EUT
Pass/fail at Threshold
Electromagnetic Effects
Assess electromagnetic interference (EMI)
MIL-STD-461G
Less is best
Noise
Evaluate Noise level
MIL-STD-1474
≤60 dBa
Continuous Operation
Demonstrate continuous operation
Laboratory Testing/EUT
2-weeks
Maritime Stability
Demonstrate bed security
Laboratory Testing/EUT
Must be secured
Multiple fastening locations
Storage Size
Evaluate total storage size of all containers and that they can be transported throughout the ship.
Laboratory Testing/EUT

MIL-STD-2073-1

Smaller is best with the fewest storage containers

Storage Weight
Demonstrate packed, individual storage containers
MIL-STD-1472
Meet MIL-STD-1472
Lighter is best with the fewest storage containers.
Vibration of packed storage containers
Demonstrate
MIL-STD-167-1
Pass/fail at Threshold
Environmental Conditions
Demonstrate protection from corrosive environments
MIL-STD-810H: Salt fog, hot/cold, sand/dust, fungus
Minimal damage, no operational impact
No physical or operational change
Shelf Life
Verify shelf life
ASTM F1980
5 years
Longer is best
Disinfection
Demonstrate material compatibility
Laboratory Testing/EUT
Compatibility with 9% calcium hypochlorite
Longer is best
Human Systems Integration (HSI)
Assess HSI
EUT
User feedback
Numerical comparison between prototypes

*EUT – Early User Touchpoint

DISTRIBUTION: DoD COMMUNITY ONLY

DISTRIBUTION: DoD COMMUNITY ONLY

2DISTRIBUTION: DoD COMMUNITY ONLY

Unclassified

Phase II Objective (Up to 15 prototypes):

Contractors selected for Phase II shall deliver up to fifteen (15) prototype systems for testing within 60 days after notification of successful downselect. Phase II testing will include a logistics and maintenance demonstration conducted during an operational evaluation by the designated Lead Operational Test Agency (LOTA). While specific testing activities for the operational demonstration have not yet been finalized, the Government will provide detailed evaluation criteria and testing requirements to contractors at the time of Phase II award. All testing conducted during Phase II will focus on verifying that the prototype systems meet the requirements outlined in Attachment 1 of this solicitation, specifically those requirements that were not tested during Phase I. The requirements in Attachment 1 will remain unchanged throughout the duration of the effort. The Government reserves the right to update or refine evaluation criteria prior to Phase II award to ensure alignment with program objectives and operational needs, provided such updates do not alter the requirements specified in Attachment 1.

4.0 DATA DELIVERABLE(S):

The contractor will submit all reports to the Agreement Officer's Representative (AOR) in the final negotiated formats. The Government and contractor will agree on format and content.

4.1 Start of Work Meeting and Meeting Minutes.

The contractor shall conduct a Start of Work meeting that includes a technology and system overview at the contractor facility one month after award. The start of work meeting will include technology and system overview, establishment of baseline, schedule, and ss. Meeting minutes will also be provided as a deliverable.

4.2 Integrated Master Schedule (IMS)

The contractor is expected to manage the prototype delivery using a shared IMS. The contractor should propose the creation, maintenance and update of an IMS. The IMS is expected to detail the durations of project tasks/sub-tasks. The Government anticipates that the IMS will be updated monthly. The contractor’s SOW should address this requirement fully.

4.3 Technical Data Package (TDP)

The contractor will develop and deliver a TDP, that includes detailed drawings, Cage Code, user manual, detailed information on the components, sub-assemblies, and materials upon delivery of the manufactured prototypes. The TDP will be IAW MIL-STD-31000B. The final TDP shall be delivered with the prototypes in Phase II.

4.4 Safety and Environmental Documentation

The SOW will address the provisions of the Safety Assessment Report (SAR), Safety Data Sheets, and Storage/Disposal criteria. The SAR will summarize safety and health hazard data, provide a comprehensive evaluation of the safety and health risks, and identify procedures/precautions required for safe use of the system/subsystem and prototypes. All Safety and Environmental Documentation shall be delivered with the prototypes in Phase 1.

4.5 Berry Amendment Compliance

The contractor shall verify that they meet the specified domestic sourcing standards outlined in the Berry Amendment. Contractors will provide detailed information on all items manufactured or sourced from outside of the United States, per the Call for Solutions.

4.6 Manufacturing Capability

The contractor shall provide an overview of their manufacturing capabilities and quality system, current production rates, as well as ability to scale production for higher demands.

5.0 PROTOTYPE DELIVERABLE(S):

The contractor shall deliver Phase I prototypes and associated data deliverables within 90 days of project award, unless an alternate timeframe is agreed upon with the Government. If authorized to proceed to Phase II, the contractor shall deliver Phase II prototypes and associated data deliverables within 60 days of authorization, or as otherwise agreed upon with the Government. Delivery locations for each phase are expected to be within CONUS.

6.0 PERIOD AND PLACE OF PERFORMANCE:

The contractor will propose a delivery schedule in its SOW to include prototype and data delivery. Prototype development will be conducted at the contractor’s facilities.

7.0 AGREEMENTS OFFICER REPRESENTATIVE (AOR):

Katrina Jewell

SIS

katrina.jewell@usmc.mil 703-617-2424

ATTACHMENT 1 – THRESHOLD REQUIREMENTS:

Requirement
Threshold
Operational Size
System will fit a regular sized hospital ICU bed
Operational and Storage Weight
Individual components will comply with the person-portable lifting and carrying limits specified in MIL-STD-1472.
Patient Access
System must provide visibility of the occupant from head-to-foot.

System will include glove ports located near patient head and torso to enable proper patient care.

Utility ports for cables/hoses.

Power
3 pronged plugs with capabilities to support 120v power.
Biocontainment
0.01 inches of water gauge / 2.5 Pascal.

Airflow into containment and exhausted out through HEPA filter

12 air changes per hour (ACH)

99.97% at 0.3-micron particle diameter.

Air Filtration System
The system must be able to visually and/or audibly indicate system operations.
Shipboard Adaptability
The system must remain stable throughout maritime conditions and have provisions to secure the bed to D-rings embedded in the ship deck.
Packaging
The SIS shall be packaged in accordance with MIL-STD-2073-1
Storage Size
Storage containers shall fit through quick acting water-tight doors (26 inches wide x 66 inches tall).
Protection during storage
The SIS storage containers shall be watertight when tested in harsh environments per MIL-STD-810
FDA
The system shall acquire FDA 510(k) clearance

Table 1 Minimum Threshold Requirements

The additional requirements listed below in Table 2 carry equal weight, and any necessary trade‑offs will be assessed accordingly.

Table 2: Additional Requirements

Functional Area
User Requirement
Performance Requirement
Operational Size, Weight
Size: Conform to specifications provided in Appendix 1
· The SIS shall be no more than 76 inches tall.

· The SIS isolation area interior shall be no less than 70 inches tall in standing/useable area.

· The SIS shall be no more than 54 inches wide.

· The SIS shall be no more than 118 inches long.

· The SIS shall be large enough to encapsulate an intensive care unit (ICU) bed with a clearance of at least 6 inches on all four sides of the ICU bed. The National Stock Numbers (NSN) for ICU beds are: 6530-01-690-8324 and NSN 6530-01-527-3820

The SIS operational weight shall not exceed 50 lbs.
· The SIS shall not have any individual component that exceeds the maximum weight limit in MIL-STD-1472 for two-person lifting.

· The SIS shall not have any individual component that exceeds the maximum weight limit in MIL-STD-1472 for two-person carry.

· The SIS shall not have any individual sub-assembly that exceeds the maximum weight limit in MIL-STD-1472 for two-person lifting.

· The SIS shall not have any individual sub-assembly that exceeds the maximum weight limit in MIL-STD-1472 for two-person carry.

Storage Containers
Size: As small as practicable; should be able to fit through a standard U.S. Navy shipboard door. A standard Quick Acting Watertight (QAWT) ship door is 26” x 66”
· The SIS shall be stored in storage containers that fit through doors with a clear opening of 26 inches wide and 66 inches tall and 8-inch radius corners.

· The SIS shall be stored in storage containers that are as small as practicable.

· The SIS shall be stored in the minimum number of storage containers as practicable.

· The SIS shall have individual storage containers that, when packed, are less than or equal to the maximum weight limit in MIL-STD-1472 for two-person lifting.

· The SIS shall have individual storage containers that, when packed, are less than or equal to the maximum weight limit in MIL-STD-1472 for two-person carry.

Regulatory Compliance.
The SIS shall have a Food and Drug Administration (FDA) 510K clearance.

The SIS shall use National Institute for Occupational Safety and Health (NIOSH) P-100 certified filters.

· Same as Threshold.

The SIS shall use National Institute for Occupational Safety and Health (NIOSH) P-100 certified filters.
· Same as Threshold.
Shipboard Adaptability
System must remain stable throughout maritime conditions, with provisions for securing beds
· The SIS shall maintain its structural integrity and suffer no permanent damage when subjected to the dynamic ship motion environment defined in Table 3: Ship Motion Parameters below.

· The SIS shall remain fully operational and meet all functional performance requirements while being subjected to the dynamic ship motion environment defined in Table 3: Ship Motion Parameters below.

Provisions for securing beds.
· The SIS shall allow the ICU bed to be secured to the ship using the D-rings embedded in the ship's deck.

· The SIS shall be provided with all necessary provisions to secure the ICU bed to the ship.

Negative Pressure
Maintain a consistent -2.5 Pa pressure differential between isolation space and the external space
· The SIS shall maintain a negative pressure differential greater than or equal to 0.01 inches of water gauge inside the isolation space with all utility ports sealed and the transfer pouches closed, if applicable.

· The SIS shall maintain a negative pressure differential greater than or equal to 0.006 inches of water gauge inside the isolation space for 2 minutes with the largest utility port open and the transfer pouches closed, if applicable.

Provide >12 air changes per hour (ACH)
· The SIS shall maintain greater than 12 air changes per hour (ACH) inside the isolation space.
Filtration Efficiency.
The system must prevent the passage of particles from inside the containment system to outside the containment system: greater than 0.3 micron at 99.97% efficiency (i.e., HEPA).
· The SIS shall have an inlet air filter with a Minimum Efficiency Reporting Value (MERV) Rating of at least 5 per ASHRAE Standard 52.2.

· The SIS inlet filter shall be removable from outside of the isolation space.

· The SIS shall have an exhaust air filter with filtration efficiency of 99.97% at 0.3-micron particle diameter

· The SIS exhaust filter shall be removable from outside of the isolation space.

· The SIS exhaust filter shall be upstream of the blower.

· The SIS shall have directional airflow inside the isolation area that flows from high to low and along the length of the isolation area.

Patient Access.
Arm Ports
· The SIS shall have 10 total, individual glove ports.

· The SIS shall have one pair of glove ports located on the end of the isolation space at the patient’s head.

· The SIS shall have one pair of glove ports located on either side of the isolation space near the patient’s head/chest.

· The SIS shall have one pair of glove ports located on either side of the isolation space near the patient’s waist/legs.

· The SIS glove ports that comprise a glove port pair shall have a center-to-center distance of no less than 33 cm and no greater than 43 cm.

· The SIS glove port gloves shall be ambidextrous.

· The SIS I2Q glove port gloves shall meet or exceed the requirements of ASTM F1671.

· The SIS gloves port gloves shall provide sufficient dexterity for caregivers to perform clinical tasks such as operating medical equipment, administering medication, and adjusting patient monitoring devices.

· The SIS glove port gloves shall be non-porous.

· The SIS glove ports shall have removable covers on the interior.

· The SIS glove ports shall have removable covers on the exterior.

· The SIS shall allow for the glove port gloves to be replaced.

· The SIS shall be provided with one complete set of size small glove port gloves.

· The SIS shall be provided with one complete set of size medium glove port gloves.

· The SIS shall be provided with one complete set of size large glove port gloves.

· The SIS shall be provided with one complete set of size extra-large glove port gloves.

· The SIS glove port gloves shall be commercially available.

· The SIS glove port gloves shall all be at least 32 inches long and no more than 34 inches long.

Isolation Area
· The SIS isolation area ceiling shall be transparent.

· The SIS isolation area walls shall be transparent starting no more than 30 inches above the floor.

· The SIS I2Q floor shall be strong enough to prevent tearing/ripping/wear-through that compromises liquid leak containment when the bed is secured to the deck for the minimum mission duration.

Alarms.
Visual alarms to alert when space is not within limits for pressure (e.g., green, yellow, red indicators)
· The SIS shall have a visual indicator that illuminates yellow when the negative pressure differential is less than 0.01 inches of water gauge during system startup.

· The SIS shall have a visual indicator that illuminates green when the negative pressure differential is greater than or equal to 0.01 inches of water gauge.

· The SIS shall have a visual indicator that illuminates yellow when the negative pressure differential is less than 0.01 inches of water gauge.

· The SIS shall have a visual indicator that illuminates red when the negative pressure differential is less than or equal to 0 inches of water gauge.

Audible alarms to alert when space is not within limits for pressure (e.g., green, yellow, red indicators)
· The SIS shall have an audible alarm when the negative pressure differential is less than or equal to 0 inches of water gauge.
Digital readout for metrics
· The SIS shall provide a digital display of the real-time pressure differential.
Equipment Access
Utility ports for at least 5 cables/hoses.
· The SIS shall have at least five utility ports.

· The SIS utility ports shall be sized to allow cables/hoses to pass through into the isolation space.

· The SIS utility ports shall be able to be sealed with cables/hoses passing through them

· The SIS utility ports shall be able to be sealed after the cables/hoses have been removed.

Larger utility port that allows pass through of medical supplies, food, and equipment from the outside of the without compromising negative pressure.
· The SIS shall have at least one transfer pouch.

· The SIS transfer pouches shall allow items to be passed into the isolation space while maintaining a negative pressure differential greater than or equal to 0.01 inches of water gauge inside the isolation space during the transfer.

· The SIS transfer pouch shall be located between the two glove port pairs on one of the long sides.

· The SIS transfer pouch shall be sized to accommodate the passing of items up to 8 inches by 12 inches.

Power
3 pronged plugs with capabilities to support 240v.
· The SIS shall have a single plug to power all system components.

· The SIS shall be compatible with 100-240 VAC, 50/60 Hz, 15 A power using a NEMA 5-15 plug.

· The SIS I2Q shall meet the EMI requirements necessary for shipboard medical equipment when powered by 100-240 VAC, 50/60 Hz, 15 A, single-phase power.

3 pronged plugs with capabilities to support 120v
· The SIS shall be compatible with 120 VAC, 60 Hz, 15 A power using a NEMA 5-15 plug.

· The SIS shall meet the EMI requirements necessary for shipboard medical equipment when powered by 120 VAC, 60 Hz, 15 A power.

Noise
Noise Level
· The SIS noise level (excluding alarms) shall be less than or equal to 60 dBA when measured in accordance with MIL-STD-1474.
Supportability
2 week mission
· The SIS shall be able to operate continuously for at least 2 weeks while maintaining a negative pressure differential greater than or equal to 0.01 inches of water gauge.

· The SIS shall be provided with all tools, supplies, and materials required to setup the system.

· The SIS shall be provided with all tools, supplies, and materials required to operate the system.

· The SIS shall be provided with all tools, supplies, and materials required to breakdown and store system.

· The SIS shall be provided with all tools, supplies, and materials required to perform corrective maintenance actions during system operation (e.g., repair hole/tear, replace a glove, change power source)

· The SIS tools, supplies, and materials shall all be stored in the system storage containers.

Leak Containment
Liquid Containment, Prevents liquid containment leaks
· The SIS shall hold at least 6 liters of liquid contamination inside the isolation area without leaking.
Disinfection
System materials shall not degrade during decontamination using 9% HTH solution in seawater for a contact time of 30 minutes.
· System materials shall not degrade during decontamination using 9% HTH solution in seawater for a contact time of 30 minutes
Storage
The stowed configuration shall safeguard contents from possible corrosion due to exposure to salt-laden air.

· The SIS shall be fully operable after being stored in the "Salt Fog / Corrosive Environments" environmental condition per MIL-STD-810.

· The SIS shall be fully operable after being stored in the "Basic Cold, Hot Dry, Dust, Sand, Fungal Growth, " environmental condition in accordance with MIL-STD-810.

· The SIS shall be packaged in accordance with MIL-STD-2073-1.

· The SIS shall be fully operable after being stored in the "Immersion" environmental condition per MIL-STD-810.

· The SIS storage container(s) shall be corrosion-resistant when tested in accordance with Method 509.8 ("Salt Fog / Corrosive Environments") of MIL-STD-810.

· The SIS I2Q storage container(s) shall be stackable without damaging the contents or the storage containers.

· The SIS shall be fully operable after Type I (Environmental) vibration testing in accordance with MIL-STD-167-1 when packed in its storage container(s).

Shelf Life
· The SIS (excluding filters) shall have an effective shelf life of at least 5 years or be provided with a warranty for a period of at least 5 years.

Table 3 details the stability requirements the system must satisfy in maritime environments.

Table 3: Ship Motion Parameters

Parameter
Value
Max Roll Angle (degrees)
20
Roll Period (seconds)
24
Max Pitch Angle (degrees)
3
Pitch Period (seconds)
8
Max Heave Acceleration (g)
0.2
Max Surge Acceleration (g)
0.1

File details come from the government source that posted it. Updated .