Attachment_2_-_Specifications.pdf

Specification of Work

Real-Time Digital Radiography Imaging System

Revision: 19 January 2017

C.1 SCOPE

This specification sets forth the overall scope of work which will be performed to support a contract for the procurement of a Real-Time Digital Radiography (DR) Imaging System with Computer Tomography (CT) capability. The new system will be used to support the radiography test mission at the US Army Yuma Proving Ground (YPG). Compatibility of the new equipment and existing equipment is essential.

C.2 APPLICABLE DOCUMENTS

ASTM E1742 Standard Practice for Radiographic Examination

ASTM E2339 Standard Practice for Radiological Examination Using Digital Detector Arrays

ASTM E2597 Standard Practice for Manufacturing Characterization of Digital Detector Arrays

ASTM E2698 Standard Practice for Digital Imaging and Communication in Nondestructive

Evaluation (DICONDE)

ASTM E2736 Standard Guide for Digital Detector Array Radiology

ASTM E2737 Standard Practice for Digital Detector Array Performance Evaluation and Long-

Term Stability

Paper No. 008-12 Digital Imaging and Communication in Nondestructive Evaluation (DICONDE)

Conformance and Verification -1 Feb. 2012, by Federal Working Group on

Industrial Digital Radiography

ANSI/RIA R15.06 Industrial Robots and Robot Systems - Safety Requirement

ANSI/NFPA 79 Electrical Standard for Industrial Machinery

DA PAM 385-64 Ammunitions and Explosives Safety Standards (Section 2, 6-10, 11&12 and

Section 3, 6-13)

C.3 TEST FACILITY

Conditions to which the equipment will be exposed to include, but are not limited to:

Indoor, Industrial Environment.

Dust, temperatures, and humidity associated with an indoor industrial environment at YPG.

X-ray imaging equipment will be exposed using the following X-ray energies:

6MeV and 3.5MeV (Linatron M6A Linear Accelerator (LINAC)

0-450kV (Tube Sources)

The YPG x-ray facility consists of a below-grade exposure bay and ground-level rooms and offices. All x-ray inspections occur within the bay. The upstairs areas are where personnel operate equipment from, and where data is collected, processed, and reviewed.

The exposure bay is approximately 56 feet long and 21 feet wide. The support structure for a Robotic

Ammunition Handling System (RAHS) gantry robot is emplaced in the bay. There are two interlocked points of entry.

Figure 1: X-ray Bay

Figure 2: X-ray Bay Floor Plan

The primary source for current operations is a single LINAC X-ray Head and RF Unit. It is mounted on an

Autoquip 34SL40 Spiral-Scissor lift table for beam height adjustment and has a fixed orientation. The LINAC is equipped with an external collimator.

Figure 3: LINAC lift table

Dimensions are approx imate, each Square ~1ft2

- Emergency Stop Location

Personnel Door Bay Door

Manipulator

Pit

450kV and 160kV Varian tube sources are both mounted to a modified BigJoe 1518-A6 pallet stacker with hydraulic lift for beam height adjustment. When these tubes are used, the assembly is wheeled in front of the LINAC X-ray Head facing the imaging area.

Figure 4: BigJoe X-ray Tube Stand

Also present are two Lorad air-cooled field units (160- and 300kV). Although not typically utilized for operations at the X-ray facility, they are used when the facility’s primary systems are down.

The manipulator pit is covered with a steel grate capable of supporting personnel and light equipment.

Additional photographs of the existing manipulator and pit are available in APPENDIX A.

Figure 5: Manipulator Pit

Operations using the system shall typically be performed as follows:

YTC personnel receive test articles as determined by mission need, and select the appropriate x-ray source with which to perform the inspection. The test the article(s) are placed in front of the panel detection area either on a table (DR) or manipulator (DR or

Real-Time). YTC personnel exit the interlocked exposure area prior to energizing the x -ray source. Data collection is performed at a workstation in the X-ray facility’s work room.

Required metadata is input into the system’s software. The X-ray source is energized, and the image/video capture process initiated. Following data capture, personnel review the image(s) or video, post process it, store locally, or send raw or post-processed

DICONDE compliant images to the existing GE Rhythm workstations for review, post processing, and archiving.

General inspection requirements require sufficient sensitivity to detect inclusions, cracks and voids in explosives; damaged, loose, or missing components; unsafe fuse and safety conditions; and other anomalies that may have been created during manufacturing, shipping, handling, storage, and testing.

Items inspected include, but are not limited to:

All types of 155mm and 105mm artillery projectiles

All types of 60mm, 81mm, 120mm mortars

All types of artillery and mortar fuzes

2.75-inch rockets with or without warheads

120mm Tank Ammunition

Foreign artillery, mortars, rockets, and other munitions

Other munitions under test of varying size and configuration

Non-munition items including castings, weapon and automotive system components

C.4 Equipment Salient Characteristics

NOTE

The proposing company shall enter compliance (C – fully meets the requirement), non-compliance (NC – does not meet all or part of the requirement) or exception (E – the requirement is partially met or the requirement is met in a different way) for each requirement and bullet. A statement is requested for any non-compliance or exception.

C.4.1 General:

The following requirements shall be met or exceeded for all equipment and components provided by the vendor:

o The system described in this document is classified as a complete turnkey Real-Time DR

Imaging System designed specifically for industrial applications, and employing a Digital

Detector Array (DDA) “Flat Panel” as the collection media for Radiographic data.

o All components shall be new and Original Equipment Manufacturer (OEM). No demonstration or used components are acceptable.

o Equipment shall be standard equipment which is already in production. Equipment purchased via the contract shall be shipped within 90 days of receipt of Delivery Order.

o Manufacturing standards shall be ISO 9001:2008 compliant.

o Components shall meet or exceed ANSI/NFPA 70, National Electric Code o Components meet specifications in C.2.

o All equipment shall maintain full function with no loss of fidelity when exposed to the environmental conditions described in C.3. No damage or degradation to the system shall occur, and all equipment shall have a 100% duty cycle when exposed to those conditions.

o As necessary, equipment shall be adequately shielded to minimize the damaging effects of exposure x-ray radiation at the energy levels described in C.3 during radiographic operations.

o The system shall be used with existing x-ray sources and other equipment within the

YPG x-ray facility (see C.3).

o The system shall be used for acquisition of both 2-D video-radiographic data, DR radiographic still images, and Thee-dimensional (3-D) Cone Beam Computed

Tomography (CBCT).

o DR images shall be DICONDE compliant, and compatible with existing GE Rhythm workstations as described in paragraph C.4.4.

o Must be capable of imaging 2-D video at a minimum frame rate of 7.5 frames per second at full resolution.

o Onsite training for a minimum of 2 days for a minimum of four personnel.

At a minimum, the training shall cover theory of operation, equipment operation, software operation, and system maintenance.

The equipment vendor shall provide necessary training documentation.

C.4.2 X-ray Source Requirements

The imaging system shall be used with the existing LINAC o Varian M6A Linatron (circa 2006) o The system shall include a provision for pulse trigger synchronization o X-ray energies of 3.5 and 6 MeV

The imaging system shall be used with tube sources up to 450kV o 160 kV Varian NDI-160-22

Controller: X-Ray Associates Model no. XRS 3000C o 450 kV Varian NDI-450-Be

Controller: X-Ray Associates Model no. XRS 3000C

C.4.3 X-ray Detector Requirements

A monolithic Digital Detector Array (DDA) “Flat Panel” shall meet or exceed the following minimum requirements:

o Radiation Hardened Designed for industrial applications: 40kV – 15MeV o Premium grade for CT applications

“DRZ Plus” scintillator or better Detection area of 16x16 inches 200 micron or smaller pixel pitch

4x106 pixels or greater Image size: 2048 x 2048 pixels 16 bit or better resolution (65,536 grey levels)

7.5 frames per second or faster image acquisition at full resolution 15 Frames per second or faster image acquisition with 2x2 binning o Integration of detector utilities with image processing software to include

Synchronization between the DDA and manipulator via external trigger Pixel correction On-board Gain & Offset corrections

Calibration procedures o The proposal shall clearly identify the DDA being offered (e.g. Perkin Elmer XRD 1621

AN ES 16"x16" , 200um, 15fps)

A transportable stand to support the detector and provide additional shielding o Shielded to protect sensitive detector electronics o Radiation shield door for the active detector area o Designed for compatibility with the existing layout and operations o Manual vertical height adjustment.

o Design accommodates manipulator requirements defined in C.4.6

C.4.4 System Controls, Data Acquisition and Review

The image acquisition and review workstation shall meet or exceed the following minimum hardware requirements:

o Minimum of 4GB RAM, 1600MHz DDR3 or better o Minimum Quad Core 3 GHz processor o Video card with Minimum 3GB onboard memory o Minimum 4TB SATA 7200 RPM HDD o Army Gold Master (AGM) Windows 10 or equivalent o Dual monitors:

4-mega pixel color LED back light flat panel for with 30-inch minimum diagonal size for radiographic image display 1-mega pixel color LED back light flat panel for with 30-inch minimum diagonal size for system operations o 8x or better DVD+/-RW Drive o Network Interface o Standard wired keyboard and mouse

The system shall be capable of operating as a standalone unit for collecting, reviewing, and archiving data. It shall also have the capability of networking with GE Rhythm workstations for sharing, and archiving data.

o System will demonstrate raw data output file is fully compatible with the existing GE

Rhythm Review systems currently in use via Rhythm’s existing functionality.

o Interoperability of the imaging systems shall be tested to verify communication of imaging data.

DICONDE compliance o X-ray imaging software shall be DICONDE compliant and meet the criteria of white paper

“Digital Imaging and Communication in Nondestructive Evaluation (DICONDE)

Conformance and Verification”: Paper No. 008-12, 1 Feb. 2012, by Federal Working Group on Industrial Digital Radiography.

The intent of this document is ensure systems are capable of correctly creating and storing DICONDE format data and eliminate systems that are not minimally compliant.

DICONDE conformance will be tested by utilizing the DICOM Validation Tool kit

(DVTk) with ASTM Validator definition files.

DVTk (www.dvtk.org) is an open source project for testing, validating, and diagnosing communication protocols and scenario’s in medical environments.

DVTk validator definition files available at ASTM web site, http://www.astm.org/COMMIT/DICONDE_Information.htm o Means to record technique information including, but not limited to, test item make, model, condition, and position; x-ray kV, mA, time, and source-to-detector distance settings; general notes, and user defined fields o Automatic recording of DICONDE data including, but not limited to sampling resolution, date/time, detector identification, x-ray source identification and settings, and test operator name.

Image acquisition software provided with the system shall include advanced image analysis tools suitable for use in industrial radiographic testing:

o Tools for windowing, leveling, histogram analysis, filtering, and measuring of DR images o Live image, integration and frame averaging, real-time contrast enhancement.

o Storage of images in a raw format for initial storage o Real-time image display and capture o Static image display and capture

Image processing software provided with the system shall utilize 16-bit grayscale pixel depth for all image manipulations and calculations. As a minimum, the following capabilities and tools shall be provided:

o Adjust the contrast and brightness o Pan the image o Adjust the magnification up to a minimum of 400 o Display the image at 1:1 pixel mapping o Floating magnifier tool with a minimum magnification of 300%.

o Measure and display the gray value of individual pixels o Obtain calibrated measurements in linear, area, and angle, in in imperial units, with the ability to compensate for geometric enlargement o Generate a user defined area of interest, capable of calculating the histogram of gray values, as well as the mean, standard deviation, and signal-to-noise ratio in the area of interest o Linear profile of gray values o Display images without image enhancements o Filters the image including but not limited to:

Edge enhancements

Contrast enhancements Image sharpening Image smoothing

Noise reduction Masking o Display the image in either negative or positive polarity.

o Change image display orientation, mirror, and rotate at 90-degree intervals o Annotations on the image including but not limited to:

Text

Circle/box outlines Arrows o Display any selected DICONDE data on the image o Display the image menu algorithms (filters) that are applied to the image o Export static images as BMP, TIF, JPG, PNG o Export video as AVI o Export DICONDE volumes to DVD-ROM

C.4.5 Computed Tomography

A Computed Tomography (CT) upgrade to the Real-Time DR Imaging System shall be proposed separately. This upgrade will be delivered with the Real-Time DR Imaging System defined in sections C.4.1, C.4.2, C.4.3, and C.4.4. This upgrade will be exercised concurrently with or after delivery of the CT Manipulator upgrade defined in section C.4.6. At delivery, the entire system shall meet the requirements in C.4.1, C.4.2, C.4.3, C.4.4, and C.4.6 in addition to the requirements for the CT upgrade as follows:

The CT Upgrade shall be a turnkey add-on to the Real-Time DR Imaging System o CT equipment, workstations, and software will complement, augment, and leverage the Real-Time DR Imaging System delivered in accordance with C.4.4 o The CT Upgrade shall leverage the “CT Grade” DDA delivered in accordance with C.4.4.

o The CT Upgrade shall be delivered concurrently with the Real-Time DR Imaging System.

The DR/CT system provided shall be a cone beam DR and CT system utilizing the existing x -ray sources at Yuma Proving Ground

The CT Upgrade shall leverage and be delivered concurrently with the CT Manipulator

Onsite training specific to the CT upgrade for a minimum of 1 day for a minimum of four personnel.

o As a minimum, the training shall cover theory of operation, equipment operation, software operation, and system maintenance.

o The equipment vendor shall provide necessary training documentation.

The CT Upgrade shall be delivered with a separate CT reconstruction and data analysis workstation o Minimum of 8 GB RAM, 1600MHz DDR3 or better o Optimized hardware and software fastest reconstruction time Utilizes parallel CPU and GPU processing o Minimum of two 4TB SATA 7200 RPM HDD or better

Configured for data redundancy to prevent loss of archived CT data in the event of a drive failure (e.g., RAID 1) o AGM Windows 10 or equivalent o Dual monitors:

4-mega pixel color LED back light flat panel for with 30-inch minimum diagonal size for radiographic image display

1-mega pixel color LED back light flat panel for with 30-inch minimum diagonal size for system operations o 8x or better DVD+/-RW Drive o Network Interface o Standard wired keyboard and mouse

The CT Upgrade software shall utilize 16-bit grayscale pixel depth for all image manipulations and calculations. The following capabilities shall be provided:

o Full Volumetric Scan capacity

Image file sizes of 2000 x 2000 x 2000 voxels or better o Continuous image acquisition o Capacity to begin reconstruction in parallel with image acquisition o Reconstruction:

Areas of interest within larger objects Objects larger than the detector

Localized reconstruction Exporting slices at user selectable angles o Precise Metrology Measurement tools o Rendering 3D volumes, and generating animations.

o Extraction to CAD compatible formats (e.g. Export STL, cloud points, OBJ, DXF, WRL, PLY) o Archival of reconstructed data

The CT Upgrade shall come with calibrated standards for the purpose of verifying system sensitivity and accuracy.

C.4.6 CT Manipulator

A CT Manipulator upgrade for the Real-Time DR Imaging System shall be proposed separately. The upgrade will be exercised concurrently with the Real-Time DR Imaging System defined in sections C.4.1, C.4.2, C.4.3, and C.4.4, and concurrently with the CT upgrade defined in section C.4.5. At delivery, the entire system shall meet the requirements in C.4.1, C.4.2, C.4.3, C.4.4, and C.4.5 in addition to the requirements for the CT Manipulator as follows:

The CT Manipulator shall be a turnkey add-on to the Real-Time DR Imaging System o The CT Manipulator shall be delivered concurrently with the Real-Time DR Imaging

System o The CT Manipulator shall be used for acquisition of both 2-D video-radiographic data, and DR radiographic still images o The CT Manipulator shall be used for acquisition of CT data .

o CT Manipulator equipment, and software will augment and leverage the Real-Time DR

Imaging System delivered in accordance with C.4.4 o Software based controls for the CT Manipulator shall be installed and controlled from the image acquisition and review workstation specified in C.4.4.

The CT Manipulator shall leverage and be delivered concurrently with the CT Upgrade o Supports the acquisition of both DR and CT data o The manipulator system must have sufficient flexibility to image the test components with sufficient speed and precision to meet the requirements within this document.

Onsite training specific to the CT Manipulator for a minimum of four personnel will be provided.

o As a minimum, the training shall cover theory of operation, equipment operation, software operation, and system maintenance.

o The equipment vendor shall provide necessary training documentation.

The CT Manipulator shall be installed into the existing manipulator pit and will interface with the equipment specified in C.4.4.

o Modifications such as enlarging the pit cannot be performed o Modifications to the steel grate covering the pit should be kept to the minimum needed

The vendor is responsible for obtaining and the accuracy of measurements of the existing pit and x-ray bay configuration Coordination, agreement to, and buyoff of modifications are required prior to design acceptance by YPG personnel

Minor modifications to the grate shall be performed and funded by YPG based on drawings provided by the vendor at design acceptance

Rework and costs resulting from vendor-driven design changes or errors are the vendor’s responsibility to correct Removal of the existing manipulator from the pit is YPG’s responsibility.

The CT manipulator shall be controllable in 5 axes refer to Figure 6.

Figure 6: Axes of Motion o Minimum payload weight capacity 300 pounds when using the T-axis turntable 100 pounds when inspecting rockets (D-axis)

X-axis translation shall control the horizontal distance between the Y-axis and the center of the fixed detector.

o Sufficient x-axis translation will be required when inspecting long objects which are placed horizontally on the manipulator (such as rockets).

o 39” off center translation in both the positive and negative directions is sufficient for the kinds of items YPG typically inspects.

o Translation speed and precision must be sufficient to meet inspection requirements within this document and no less than 2-inches per second for real time operations.

o Typical test item would include 2.75” rocket motors placed horizontally into the manipulator.

Y-axis translation shall control the vertical distance between the X-axis and the center of the fixed detector.

o Sufficient Y-axis translation will be required when inspecting tall objects which are placed vertically on the manipulator (such as rockets).

o 48” travel is sufficient for 100% coverage (tip to tail) the kinds of items YPG typically inspects o Total travel of the manipulator will be dependent on the design on the manipulator, detector stand, and other factors. The vendor’s proposal should contain enough information for YPG to determine the effectiveness of the design.

o Translation speed and precision must be sufficient to meet inspection requirements within this document and no less than 2-inches per second for real time operations.

o Typical test item would include 155mm artillery projectiles placed vertically onto the

Z-axis translation shall control the distance between the manipulator and the fixed detector for purpose of adjusting geometric magnification.

o Sufficient Z-axis translation will be required to provide physical distance between the test item and the detector, and to provide geometric magnification.

o 36” translation away from the detector, towards the source, is sufficient for the kinds of items YPG typically inspects.

o At a translation of 0”, the test manipulator should be as close to the detector as physical ly possible to provide minimal distance between the test item and detector.

o Translation speed and precision must be sufficient to meet inspection requirements within this document and no less than 2-inches per second for real time operations.

T-axis rotation shall control the rotation about the Y-axis of a test item placed into the o Capable of continuous rotation about the Y-axis.

o Minimum resolution of .001 degrees.

o Rotation speed and precision must be sufficient to meet inspection requirements within this document and not less than one full revolution in 30 seconds for real time operations.

o Typical test item requiring T-axis rotation would include 155mm artillery projectiles placed vertically onto the manipulator.

o T-axis turntable shall be able to accommodate test items up to a 10 inches in diameter o T-axis turntable shall be drilled and tapped to accommodate fixtures for various sizes of artillery munitions and mortars.

Fixtures shall prevent test items from falling out of the manipulator.

Fixtures shall be easily swapped out depending on the item being tested.

Fixtures shall have negligible impact to the DR or CT data being collected.

Delivery of the manipulator shall include fixture(s) for:

155-, 120-, and 105-mm munitions.

60-, 81-, 120-mm mortars

D-axis rotation shall control the rotation about the X-axis of a test item placed into the o Capable of continuous rotation about the X-axis.

o Minimum resolution of .001 degrees.

o Rotation speed and precision must be sufficient to meet inspection requirements within this document and not less than one full revolution in 30 seconds for real time operations.

o Typical test item requiring D-axis rotation would include 2.75” rocket motors placed horizontally into the manipulator.

o D-axis shall be able to accommodate test items up to a 5 inches in diameter and varying lengths up to 78 inches.

o T-axis turntable shall be drilled and tapped to accommodate fixtures for various sizes of munitions.

Fixtures shall prevent test items from falling out of the manipulator.

Fixtures shall be easily swapped out depending on the item being tested.

Fixtures shall have negligible impact to the DR or CT date being collected.

Delivery of the manipulator shall include fixture(s) for:

2.75” rockets.

The manipulator shall have sufficient interlocks and emergency stop buttons (e-stops) for emergency shut down, or to render the system in a stand-by “safe to approach” mode.

o A minimum of four e-stops shall be installed

Two in the test bay at the approximate locations specified in Figure 2.

One in the test bay attached to the manual pendant.

One upstairs at the workstation.

Pushing any e-stop will immediately stop all motion on the manipulator.

Safety interlock switches to be installed by the equipment vendor to operate with existing x-ray bay doors and via a keyed interlock at the upstairs workstation.

These interlocks shall prevent manipulator operation unless overridden with the manual pendant in the x-ray bay.

The manipulator shall recover from e-stop / standby condition without needing to be re-initialized, homed, or unloaded.

The manipulator shall contain sufficient sensors, limit switches, stops, brakes, and other controls to prevent possible collision between test item, material handling equipment, imaging equipment, pit safety covers, itself, and the facility.

o There is currently no requirement for interfacing the manipulator with the existing (non-functional) RAHS. However, to provide limited interoperability in the event the RAHS is brought on-line:

Vendors shall provide two leads which supply a 5VDC signal when the manipulator is in a programmable “Safe to Approach” position Vendors shall provide two 5VDC inputs which, when either input sees a 5VDC signal, the manipulator will not move. The manipulator will resume normal operation when the 5VDC signal ceases.

o Over-travel condition shall stop motion to prevent damage to the manipulator

Shall be recoverable using the manual pendant.

The manipulator shall recover from over-travel condition without needing to be re-initialized, homed, or unloaded.

The CT Manipulator shall meet or exceed the following requirements:

o Shall allow for both manual and Computer Numerical Control (CNC)

CNC control via workstation manual inputs

CNC control via user defined & programed recipes Manual control via joystick control from the upstairs work area Manual control via pendant in the exposure bay

An automated homing operation shall be used to initialize the manipulator.

The manipulator shall stow itself into the pit in a manner that it does not interfere with operations which do not utilize it such as use of a hydraulic lift table in conjunction with the DDA.

C.5 Customer Support:

Delivery and support shall include, but is not limited to:

o Delivery of completed design drawings within 45 days after acceptance of contract.

o Delivery and on site system installation and calibration: the system shall be installed and calibrated within 180 days after acceptance of final system design. Scheduling the installation will require coordination with YPG to minimize impact to the mission.

o The equipment vendor shall provide a minimum of two complete hardcopies and one electronic copy of electrical schematics, mechanical drawings, and operation and system maintenance manuals, including a complete parts list with make and model of all components.

o The equipment vendor shall include a minimum of one periodic maintenance visit as necessary for proper maintenance of the system.

C.6 Antiterrorism (AT) & Operations Security (OPSEC)

The following requirements must be met for contractor personnel entering YPG in support of the onsite effort.

1. AT Level I training. All contractor employees, to include subcontractor employees, requiring access Army installations, facilities and controlled access areas shall complete AT Level I awareness training within 30 calendar days after contract start date or effective date of incorporation of this requirement into the contract, whichever is applicable. The contractor shall submit certificates of completion for each affected contractor employee and subcontractor employee, to the COR or to the contracting officer, if a COR is not assigned, within 05 calendar days after completion of training by all employees and subcontractor personnel. AT level I awareness training is available at the following website: http://jko.jten.mil

2. Access and general protection/security policy and procedures. Contractor and all associated sub-contractors employees shall provide all information required for background checks to meet installation access requirements to be accomplished by installation Provost Marshal Office, Director of Emergency Services or Security Office. Contractor workforce must comply with all personal identity verification requirements (FAR clause 52.204-9, Personal Identity Verification of

Contractor Personnel) as directed by DOD, HQDA and/or local policy. In addition to the changes otherwise authorized by the changes clause of this contract, should the Force Protection

Condition (FPCON) at any individual facility or installation change, the Government may require changes in contractor security matters or processes.

2a. N/A

2b. For contractors that do not require CAC, but require access to a DoD facility or installation.

Contractor and all associated sub-contractors employees shall comply with adjudication standards and procedures using the National Crime Information Center Interstate Identification

Index (NCIC-III) and Terrorist Screening Database (TSDB) (Army Directive 2014-05/AR 190-13), applicable installation, facility and area commander installation/facility access and local security policies and procedures (provided by government representative), or, at OCONUS locations, in accordance with status of forces agreements and other theater regulations.

3. N/A http://jko.jten.mil/

4. iWATCH Training. This standard language is for contractor employees with an area of performance within an Army controlled installation, facility or area. The contractor and all associated sub-contractors shall brief all employees on the local iWATCH program (training standards provided by the requiring activity ATO). This local developed training will be used to inform employees of the types of behavior to watch for and instruct employees to report suspicious activity to the COR. This training shall be completed within 30 calendar days of contract award and within 05 calendar days of new employees commencing performance with the results reported to the COR NLT 30 calendar days after contract award.

5. – 14. N/A

C.7 Warranty The vendor shall provide a warranty for the equipment which is provided to YPG. The warranty length shall be a minimum of one year from date of acceptance, and guarantee equipment work properly and be free of defects caused before delivery of the system, or through normal use. The vendor warranty shall cover all parts and labor for the system to include free software updates and patch releases, and e-mail and telephone technical support.

APPENDIX A

X-ray Imaging Bay

These images are provided for the purpose of familiarizing the reader with the existing bay and manipulator pit. They are for reference only.

Old real-time equipment. No longer in service.

Old Rocket Adapter

Munitions Turntable.

Safety Cover.

The “Pit”

Current Bay Configuration

APPENDIX A

X-ray Imaging Bay

Old Bay Configuration

APPENDIX B

Quality Assurance Surveillance Plan (QASP)

COR EVALUATION CHECKLIST

Real-Time Digital Radiography Imaging System

PWS Line

Item Description Date

Acceptable

Yes / No Reason if “No”

C.4.1 General Requirements met per

SOW.

C.4.3 X-ray Detector meets requirements per SOW.

C.4.4

System Controls, Data Acquisition and Review meets requirements per SOW.

C.4.5

Upgrade 1 – Computed

Tomography Upgrade meets requirements per SOW.

C.4.6 Upgrade 2 – CT Manipulator meets requirements per SOW.

C.5, C.7 Customer Support & Warranty meet requirements per SOW.

C.6 AT-OPSEC meets requirements per

SOW

Overall Performance

Signed:

Figure B-7: COR Evaluation Sheet