Ergonomic, Mobile Grossing Workcenter with Digital Documentation of Surgical Specimens
This all-in-one grossing workstation has been specifically designed to integrate state of the art tools and standardization into a 21st century system for gross tissue dissection.
eGROSS is the first to incorporate the digital power of specimen identification and dissection documentation, introducing a standardized image documenting protocol.
With all of the Milestone and Mopec grossing stations paired with MacroPATH software all cases are stored in a searchable database. Images can be sorted by Case Number, Individual capturing the image, last edit date, or tags. This is a very important tool when working in teaching institutions and when presenting cases in front of the tumor board.
The MAcroPATH camera and Point of Care computer with software can be integrated into the Mopec grossing stations allowing the end user to take advantage innovative Milestone digital image solution.
When interfacing the digital imaging system to a LIS at any workstation the MacroPATH software is running in the background and monitors a local or network location for image storage. The grossing station acts as a secondary application to the LIS. The patient case identifier is held by the LIS. When working with a TWAIN protocol the LIS launches the MacroPATH software, digital images are captured, annotations are made, and all assets are transferred to the LIS.
When digital images features are not required, the Workstations are available without the MacroPATH system, while maintaining all of the other features and technical characterstics.
The Milestone grossing stations with the MacroPATH digital imaging system allows the end user to easily capture, annotate, measure, share, and save high quality images of gross specimens in the AP lab along with the frozen section room. The camera and touch screen monitor take up minimal workspace in your grossing station. The automatic focusing makes it simple to get crisp, detailed pictures. Removing gloves is unnecessary because the system can be controlled hands-free with the foot pedal.
Optional barcode scanning facilitates sample tracking and quality assurance. Through the software remote conferencing enables high resolution live consultation between the grossing technician and pathologist. Annotations and scale bars can be added once the original image is captured, taking no time at all.
The Milestone workstations comes with everything you need to add image capture to your grossing process without workflow disruption. Case numbers can be scanned in with the bar code scanner or manually entered. The camera displays live video and can be controlled hands free with the foot pedal. Annotations can be added with a gloved finger on the touchscreen computer. The workstations are an innovative system thoughtfully designed for optimal productivity.
The Macropath camera and POC can be added to any brand of grossing station, including those from Mopec®, Sakura and Thermo Scientific. Due to the small size of the camrea, minimal workspace is used.
Below is an article discussing the importance of digital imaging systems within Anatomical Pathology.
Integration of digital gross pathology images for enterprise-wide access 
Equip your pathology laboratory with the safest and most personalized grossing station ever offered. Mopec understands that each pathology professional has their own workspace preferences, and each laboratory holds their own safety, ergonomic and workflow requirements. Because of this, we’ve designed the Mopec Maestro Grossing Station. The MacroPATH digital imaging system can easily be interrogated with the Mopec Grossing Stations and Milestone partners with Mopec to ensure the proper mounts and brackets are provided to do so.
Sharing digital pathology images for enterprise- wide use into a picture archiving and communication system (PACS) is not yet widely adopted. We share our solution and 3-year experience of transmitting such images to an enterprise image server (EIS).
Gross pathology images acquired by prosectors were integrated with clinical cases into the laboratory information system’s image management module, and stored in JPEG2000 format on a networked image server. Automated daily searches for cases with gross images were used to compile an ASCII text file that was forwarded to a separate institutional Enterprise Digital Imaging and Communications in Medicine (DICOM) Wrapper (EDW) server. Concurrently, an HL7-based image order for these cases was generated, containing the locations of images and patient data, and forwarded to the EDW, which combined data in these locations to generate images with patient data, as required by DICOM standards. The image and data were then “wrapped” according to DICOM standards, transferred to the PACS servers, and made accessible on an institution-wide basis.
In total, 26,966 gross images from 9,733 cases were transmitted over the 3-year period from the laboratory information system to the EIS. The average process time for cases with successful automatic uploads (n=9,688) to the EIS was 98 seconds. Only 45 cases (0.5%) failed requiring manual intervention. Uploaded images were immediately available to institution- wide PACS users. Since inception, user feedback has been positive.
Enterprise- wide PACS- based sharing of pathology images is feasible, provides useful services to clinical staff, and utilizes existing information system and telecommunications infrastructure. PACS-shared pathology images, however, require a “DICOM wrapper” for multisystem compatibility.
In total, 26,966 gross images from 9,733 cases were transmitted from the laboratory information system to the EIS. The average process time for cases with successful automatic uploads (n=9,688) to the EIS was 98 seconds; these times represent the processing time for the patient data and images to run though the EDW system into the EIS, but does not include any processing time in the LIS. Only 45 cases (0.5%) failed, requiring a manual transmission by the information technology support staff; for these cases, the average process time was 1 day, 8 minutes and 10 seconds. More specifically, these 45 cases failed due to a reported “time synchronization” error between the batch process creating the text file and availability of the jpeg images. Moving the batch an hour or so past the end of the working day resolved these errors.
Uploaded images were immediately available to institution-wide PACS users. Since inception, user feedback has been positive (informally evaluated via correspondence and at tumor boards) in several ways. First, digital gross pathology images were readily available to surgeons to help determine follow-up treatment protocols for their patients (e.g., transplant trials based on the amount and type of resected tissue). Second, surgeons no longer had to repeatedly contact pathologists to request gross pathology images of the specimens they removed. Third, these images were available for immediate review in subspecialty-based surgical oncology conferences and for counseling specific patients during clinic appointments. Access to these images has also allowed surgeons to more easily interpret the text-based gross description, including the locations of lesions and the orientation of the specimen, in the pathology reports they receive.
Based on our experience, enterprise-wide PACS-based sharing of pathology digital images is feasible, at least in a large academic hospital setting. As we have demonstrated, this service can be cost effective if existing technology and communications infrastructure can be leveraged. The LIS-PACS partnership described herein, however, involved significant resource commitments, including 15 months of in-house programming time. Similar commercially available methods have since emerged.[13,14] While there is certainly much potential with digital pathology, one of the challenges facing many institutions remains the feasibility of permanently archiving large volumes of pathology images for long periods of time because of their size, compared to imaging from most other disciplines. Advantages of utilizing DICOM compliant digital pathology images include the ease of image distribution to a PACS, downstream multi-system compatibility with other electronic health records, and widespread sharing of images intended to improve client satisfaction and hopefully improve patient care. There is a concerted effort for institutions to begin leveraging their PACS beyond the radiology department for enterprise-wide initiatives such as integration of digital images into the EMR, building decision support tools, supporting quality assurance programs and as a research tool. The LIS-PACS partnership at our institution continues to grow, with future plans for digital gross pathology images acquired at all of our centers to be sent to the PACS, to facilitate enterprise-wide sharing of digital photomicrographs, and perhaps even whole-slide images given the recent push to link these images with DICOM and for PACS to handle whole-slide microscopic images.
1. Integration of digital gross pathology images for enterprise-wide access
Milon Amin, Gaurav Sharma,1 Anil V. Parwani, Ralph Anderson,2 Brian J Kolowitz,2 Anthony Piccoli,2 Rasu B. Shrestha,2 Gonzalo Romero Lauro,2 and Liron Pantanowitz*
13. Ladin M, Geertrui DS, Jacobs J. Agfa HealthCare unveils integrated digital pathology/PACS solution at RSNA. AGFA HealthCare. [Last accessed on 2011 Dec 9]. Available from: http://agfahealthcare.com/usa/en/main/news_events/news/archive/he20111129_lapitie_paris.jsp .
14. Apollo PACS. PathPACS: Apollo Enterprise Patient Media Manager. Apollo Enterprise Patient Media Services. [Last accessed on 2011 Dec 9]. Available from: http://apollopacs.com/products-solutions/pathpacs.php .
15. Stewart BK. Picture archiving and communication systems. In: Hendee WR, editor. Informatics in medical imaging. Vol. 16. United Kingdom: Taylor Andand Francis, MA; 2012. pp. 235–49. [Google Scholar]
16. Tuominen VJ, Isola J. Linking whole-slide microscope images with DICOM by using JPEG2000 interactive protocol. J Digit Imaging. 2010;23:454–62. [PMC free article] [PubMed] [Google Scholar]
17. Punys V, Laurinavicius A, Puniene J. A data model for handling whole slide microscopy images in picture archiving and communications systems. Stud Health Technol Inform. 2009;150:856–60. [PubMed] [Google Scholar]
The MacroPATH, a user- oriented capture and storage system for macro images of patient specimens, is integrated with the eGROSS.
It dramatically reduces specimen turnaround time at the grossing station compared to conventional shoot and capture handheld systems. Autofocus, auto-light adjustment, and hands free operation through a foot pedal enable users to concentrate on the patient case without manual intervention.