This patent relates generally to health record management, and more particularly, this patent relates to a system and method for facilitating cross enterprises data sharing of healthcare information.
Healthcare enterprises and integrated delivery networks are often complex and diverse entities which provide many aspects of patient care and engage in many other patient related operations. From hospitals to outpatient clinics, solo practitioners to large multi-specialty group practices to payer organizations; from registration, scheduling, and demographics information to clinical and procedural services to billing and accounts receivable processes, a healthcare organization generates and manages a great deal of information about each patient that it serves within its network. Because this information is related to a person's medical history, it is of great importance, and because the kinds of information generated are so varied, there are numerous entities that might have a need for some or all of it. A broad range of disparate entities—providers, payers, and a diverse range of third parties—may all need to share the patient's information, with the patient's consent. Patients must be able to share their healthcare information with whomever they wish, while retaining control over who may and may not access their healthcare information, and to what extent.
The need for better and more secure access to this Patient Health Information (PHI), as well as the need to share the PHI data between enterprises, has spurred new and ever-changing regulation in this area. For example, among the wide range of legislation governing use of PHI, in the United States the Health Insurance Portability and Accountability Act (HIPAA) sets down regulations and standards of compliance for covered entities in the healthcare industry. Many of these regulations govern privacy and the release of a patient's medical information, some of the key points of which are described below.
For example, the disclosure of PHI generally requires either consent or authorization from the patient and must be limited to the “minimum necessary” to accomplish the intended purpose of the use, disclosure, or request. Also, a covered entity must be able to provide a patient with an accounting of all disclosures of PHI to other requesters, including the following information: the date of disclosure, the person or entity to whom/which information was disclosed, a description of the nature of the disclosure, or in place of a description, a copy of the disclosure request.
Another example is that an organization must be able to specify which of its employees or groups of employees, based on their roles or duties, will need access to PHI. Furthermore, an organization must be prepared to allow patients to inspect, copy, and amend the health information used to make treatment, financial, or operational decisions about them. Yet another requirement is that an organization must respond to a request to inspect or copy PHI within 60 days. A request for PHI can be denied, under certain circumstances, but the organization is required to provide a reason and an explanation for the denial, as well as to review the patient's rights and how to file a complaint about the denial.
Complying with these regulations presents a significant challenge for a complex and diverse Healthcare Organization (HCO), especially doing so in a timely and efficient manner. While these regulations apply to all kinds of PHI, perhaps the most problematic area of compliance for HCOs is a patient's medical record information, or chart.
Traditional approaches to comply with these regulations and facilitate the sharing of data have encompassed extremely sophisticated and complex architectures that also require a great deal of collaboration between the enterprises. These approaches have proven to be extremely expensive and difficult to establish. Furthermore, these approaches can be very difficult to maintain as a multitude of organizations often would need to dump millions of records into the system, requiring large numbers of personnel to routinely clean up the data within the records to maintain data quality sufficient to be relied upon for patient care.
Another problem with traditional approaches is that many patients have not felt comfortable with their health information residing on a remote server or database that is outside the control of any single health organization. The present invention addresses this concern by removing the need for third-party clearinghouses, authorities, or other intermediary services whose role is to compile and facilitate distribution of PHI data across multiple enterprises. It allows for the direct sharing of information, as authorized by the patient, between enterprises without the need for a third-party intermediary.
The release authorization identifies, either directly or indirectly, the patient information authorized for transmission It may also optionally include an authorization token that identifies the release authorization and can be used by a second organization to facilitate the transfer of the information authorized for transmission. In addition, the token may serve as a vehicle of patient consent for a release of information because the patient, or the patient's guardian, would be empowered to give the authorization token to the second organization. I.e., a release authorization may be created that identifies information that may be transmitted when authorized, and the act of the patient giving the auth token to another organization serves as the authorization by the patient to share info with the second organization, i.e. any enterprise that requests the info may be assumed to be authorized because they would only know how to request the information if the patient had given them the release auth/auth token, thereby authorizing them. The term “token” should be construed in its broadest sense as tokens may take any number of forms that include, for example, paper, plastic, etc., or even an electronic form that can be transmitted to other organizations or is stored on any type of machine readable medium.
In cases where an authorization token is used, once the authorization token is received by a second organization the organization can scan or otherwise enter information from the token into its system. The token may include data associated with the destination system, how to connect to the destination system, and other identifying data that would allow the information authorized to be released to be identified at the first enterprise. Only the information that was authorized for release by the patient would be transmitted. Making the patient a part of the authorization and release process, and having the patient initiate the request, enables the patient to be in control of the process and minimizes confidentiality concerns.
The system 10 includes a first enterprise 20 in communication with a second enterprise 30 via a network 40. The term enterprise, organization, etc. as used herein mean any person or entity that might have a need to request patient information. The system 10 may also include a workstation 50 in communication with the enterprises 20, 30 via the network 40. The enterprises 20, 30 may be located, by way of example rather than limitation, in separate geographic locations from each other, in different areas of the same city, or in different states. Although the system 10 is shown to include two enterprises 20 and 30 and a single workstation 50, it should be understood that large numbers of enterprises may be utilized. For example, the system 10 may include a network 40 having a plurality of workstations and dozens of enterprises, all of which may be interconnected via the network 40.
The network 40 may be provided using a wide variety of techniques well known to those skilled in the art for the transfer of electronic data. For example, the network 40 may comprise dedicated access lines, plain ordinary telephone lines, satellite links, local area networks, wide area networks, frame relay, cable broadband connections, synchronous optical networks, combinations of these, etc., or any other data communication method. Additionally, the network 40 may include a plurality of network computers or server computers (not shown), each of which may be operatively interconnected in a known manner. Where the network 40 comprises the Internet, data communication may take place over the network 40 via an Internet communication protocol.
The system 10 may include transformation engines 52 and 54 coupled between the network 40 and the enterprises 20 and 30, respectively. The transformation engines 52, 54 will be discussed in more detail below. The system 10 may optionally include a message authentication manager 56 communicatively coupled between the enterprises 20 and 30. The message authentication manager 56 or a similar service may be incorporated to authenticate the validity of messages transferred between the enterprises 20, 30, as well as the workstation 50. An example of a message authentication manager is VeriSign Inc., which verifies that a message is sent from a particular location with the use of certain security keys, such as PKIs, etc.
The enterprises 20, 30 may include one or more enterprise servers 60, 62 that are coupled to one or more data repositories 64, 66 via links 70, 72. The enterprise servers 60, 62 may be servers of the type commonly employed in data storage and networking solutions. The servers 60 and 62 may be used to accumulate, analyze, and download data relating to a healthcare facility's medical records. Additionally, the servers 60 and 62 may be used to generate and facilitate the use of authorization tokens. Due to the flexibility in state-of-the-art hardware configurations, the server may not necessarily correspond to a single piece of hardware (i.e., a single server machine), although that may be the case. One of ordinary skill in the art will appreciate that a separate but connected server may serve the role of creating release authorizations for the data managed by the server(s) containing the patient data.
The enterprises 20, 30 may also include an authorization vault 74, 84 and a document store 76, 86 coupled to the data repository 64, 66. While the authorization vaults 74, 84 and the document stores 76, 86 are shown coupled to the data repositories 64, 66, those of ordinary skill in the art will appreciate that components 74, 76, 84, 86 could be implemented as part of the data repositories 64, 66. For example, information regarding release authorizations and corresponding information authorized for release may be stored in a dedicated data structure such as an authorization vault, or may be stored in data structures contained in a patient's electronic health record (EHR), or may be stored anywhere else. The invention simply requires the ability to store release authorizations and store related information such as information identifying the information authorized for release. The enterprise 20 may also optionally include an authorization token generator 92 coupled to the enterprise server 60. Similarly, the enterprises 30 may also include an authorization vault 84, a document store 86 and an authorization tokens 90 coupled to the data repository 66. The enterprise 30 may also optionally include an authorization token generator 94 coupled to the enterprise server 62. These components will be discussed in greater detail below.
The workstation 50 may include a display 96, a controller 97, a keyboard 98 as well as a variety of other input/output devices (not shown) such as a printer, mouse, touch screen, track pad, track ball, isopoint, voice recognition system, bar code scanner, Radio Frequency Identification (RFID) tag reader, RFID tag printer, biometric reader, magnetic data reader/writer, etc. Each workstation 50 may be signed onto and occupied by a user to assist them in performing their employment duties.
The network 40 may be provided using a wide variety of techniques well known to those skilled in the art for the transfer of electronic data. For example, the network 40 may comprise dedicated access lines, plain ordinary telephone lines, satellite links, local area networks, wide area networks, frame relay, cable broadband connections, synchronous optical networks, combinations of these, etc., or any other data communication method. Additionally, the network 40 may include a plurality of network computers or server computers (not shown), each of which may be operatively interconnected in a known manner. Where the network 40 comprises the Internet, data communication may take place over the network 40 via an Internet communication protocol.
The system 100 may include transformation engines 52 and 54 coupled between the network 40 and the enterprises 20 and 30, respectively. The transformation engines 52, 54 will be discussed in more detail below. The system 100 may optionally include a message authentication manager 56 or a similar service coupled between the enterprises 20 and 30. The message authentication manager 56 will also be discussed in more detail below.
The enterprises 20, 30 may include one or more enterprise servers 60, 62 that are coupled to one or more data repositories 64, 66 via links 70, 72. The enterprise servers 60, 62 may be servers of the type commonly employed in data storage and networking solutions. The servers 60 and 62 may be used to accumulate, analyze, and download data relating to a healthcare facility's medical records. Additionally, the servers 60 and 62 may be used to generate and facilitate the use of release authorizations and associated information. Due to the flexibility in state-of-the-art hardware configurations, the server may not necessarily correspond to a single piece of hardware (i.e., a single server machine), although that may be the case. One of ordinary skill in the art will appreciate that a separate but connected server may serve the role of generating and facilitating the use of release authorizations and associated information for the data managed by the server(s) containing the patient data.
The enterprise 20 may also include an authorization vault 74 and a document store 76 coupled to the data repository 64. The enterprise 20 may also optionally include an authorization token generator 92 coupled to the enterprise server 60. Similarly, the enterprise 30 may also optionally include an authorization vault 84 and a document store 86 coupled to the data repository 66. The enterprise 30 may also optionally include an authorization token generator 94 coupled to the enterprise server 62. While the authorization vaults 74, 84 and the document stores 76, 86 are shown coupled to the data repositories 64, 66, those of ordinary skill in the art will appreciate that components 74, 76, 84, 86 could be implemented as part of the data repositories 64, 66. These components will be discussed in greater detail below.
The network 40 may be provided using a wide variety of techniques well known to those skilled in the art for the transfer of electronic data. For example, the network 40 may comprise dedicated access lines, plain ordinary telephone lines, satellite links, local area networks, wide area networks, frame relay, cable broadband connections, synchronous optical networks, combinations of these, etc., or any other data communication method. Additionally, the network 40 may include a plurality of network computers or server computers (not shown), each of which may be operatively interconnected in a known manner. Where the network 40 comprises the Internet, data communication may take place over the network 40 via an Internet communication protocol.
The system 150 may optionally include a message authentication manager or similar service (not shown) in communication with the enterprise 20 and the workstation 50. The message authentication manager will also be discussed in more detail below.
The enterprise 20 may include one or more enterprise servers 60 that are coupled to one or more data repositories 64 via link 70. The enterprise server 60 may be a server of the type commonly employed in data storage and networking solutions. The server 60 may be used to accumulate, analyze, and download data relating to a healthcare facility's medical records. Additionally, the server 60 may be used to generate and facilitate the use of release authorizations and associated information. Due to the flexibility in state-of-the-art hardware configurations, the server may not necessarily correspond to a single piece of hardware (i.e., a single server machine), although that may be the case. One of ordinary skill in the art will appreciate that a separate but connected server may serve the role of generating and facilitating the use of release authorizations and associated information for the data managed by the server(s) containing the patient data.
The enterprise 20 may also include an authorization vault 74, a document store 76 and an authorization tokens 80 coupled to the data repository 64. While the authorization vault 74, the document store 76 and the authorization tokens 80 are shown coupled to the data repository 64, those of ordinary skill in the art will appreciate that components 74, 76, 80 could be implemented as part of the data repository 64. For example, information regarding release authorizations and corresponding information authorized for release may be stored in a dedicated data structure such as an authorization vault, or may be stored in data structures contained in a patients electronic health record (EHR), or may be stored anywhere else. The invention simply requires the ability to store release authorizations and store related information such as information identifying the info authorized for release. The enterprise 20 may also optionally include an authorization token generator 92 coupled to the enterprise server 60. These components will be discussed in greater detail below.
One possible embodiment of one of the enterprise servers 60 shown in
All of these memories or data repositories may be referred to as machine-accessible mediums. For the purpose of this description, a machine-accessible medium includes any mechanism that provides (i.e., stores and/or transmits) information in a form accessible by a machine (e.g., a computer, network device, personal digital assistant, manufacturing tool, any device with a set of one or more processors). For example, a machine-accessible medium includes recordable/non-recordable media (e.g., read only memory (ROM); random access memory (RAM); magnetic disk storage media; optical storage media; flash memory devices), as well as electrical, optical, acoustical or other form of propagated signals (e.g., carrier waves, infrared signals, digital signals); etc.
The enterprise 20 may be coupled to the data repository 64 via the link 70. The link 70 may be part of a wide area network (WAN), a local area network (LAN), or any other type of network readily known to those persons skilled in the art.
Typically, the servers 60, 62 store a plurality of files, programs, and other data for use by the workstations 50 and other servers located in other enterprises. One server 60, 62 may handle requests for data from a large number of workstations 50. Accordingly, each server 60, 62 may typically comprise a high end computer with a large storage capacity, one or more fast microprocessors, and one or more high speed network connections. Conversely, relative to a typical server 60, 62, each workstation 50 may typically include less storage capacity, a single microprocessor, and a single network connection.
While it will be discussed in greater detail below, a patient or a person associated with a patient, such as, for example, a parent or guardian, may chose to generate a release authorization for a release of information by accessing an enterprise through a network portal, such as a patient web portal. The patient portal block diagram illustrated in
One manner in which an exemplary system may operate is described below in connection with a block diagram overview and a number of flow charts which represent a number of routines of one or more computer programs.
As those of ordinary skill in the art will appreciate, the majority of the software utilized to implement the system 10 is stored in one or more of the memories in the controllers 60 and 60A, or any of the other machines in the system 10, and may be written at any high level language such as C, C++, C#, Java, or the like, or any low-level, assembly or machine language. By storing the computer program portions therein, various portions of the memories are physically and/or structurally configured in accordance with the computer program instructions. Parts of the software, however, may be stored and run locally on the workstations 50. As the precise location where the steps are executed can be varied without departing from the scope of the invention, the following figures do not address which machine is performing which functions.
The consent form is then provided to the patient 264 so that the patient can execute the consent form, providing written or electronic authorization for the release of information. Once the patient signs the consent form 266, the form may be stored in paper format with the second enterprise, or stored electronically, or both 268. If the authorization is in electronic form, it may simply be stored in a data repository. It should be noted that an actual written signature may not be necessary, as alternative methods of generating release authorizations are available, such as, through a patient portal. When giving consent, the patient may decide what information he or she wants to release. The information could be very limited, very liberal, or a blanket authorization to share all PHI related to that patient. Thus, the system 10 may be adapted to provide a very granular level of information release that is selectable by the patient. The system 10 could also support electronic signature (e-sig) for this; for example, a patient may sign an electronic tablet to put their signature into the system; as new technologies develop, such as the use of digital and electronic signatures, personal identification certificates, biometrics, and the like, those could be used as well (i.e. patient plugs in a flash drive or touches a fingerprint reader and their identity is confirmed).
When using an order to initiate the creation of a release authorization, as shown at block 270, the provider may submit the order 272 to the system 10 through the first enterprise 20. The system 10 may then submit questions to the provider 274 and the provider, in turn, may submit these questions to the patient 276. In answering the questions 278, the patient determines what data he or she wants to share with the second enterprise. One way of selecting what information to make available is to use order specific questions to get answers about what data to share with the second enterprise. For example, there may be a question on whether to include behavioral health visits, which could include a default value of ‘no.’ There may be other questions, such as whether or not information pertaining to sensitive encounters, medications the current visit, date range, etc. should be authorized for release. As one of ordinary skill in the art will appreciate, questions may be created to facilitate decisions regarding the sharing of any PHI. In addition to using questions to identify the information to be shared, questions can be used to aid in determining any other parameters relating to the release authorization. Other possibilities might be to include who the data may be shared with, or whether the use will be a one time authorization or a multiple time authorization, whether or not it includes an expiration date, whether or not it may include any information to be collected in the future, or whether or not it is restricted to specific organizations that the patient identifies or may be used by any authenticated organization, etc. The process of determining what information to share may be accomplished in numerous other ways as one of ordinary skill in the art will appreciate, and is not limited to the use of questions. It may not even need to be a provider facilitating this process, as it may be the personnel that currently administer the release of information or any other user trained in the use of the system. Further, the patient can have more than one authorization token and each one might release different levels of information or have different restrictions.
The patient could also limit the identification data associated with the information authorized to be released so that an anonymous encounter may occur at the second enterprise. In other words, the patient may request that no data identifying the patient be released from the first enterprise. That is, a patient could create a release authorization excluding personally identifying information, and go to another medical center anonymously e.g., an anonymous sexually transmitted disease (STD) clinic or the like. While they would be anonymous, e.g. no one would know their name or identity, they could still provide relevant PHI to the organization receiving the information authorized to be released. Another example would be a patient with a sensitive condition seeking care under an alias, or a famous person seeking care under an alias.
At block 280, the system 10 may then generate the release authorization for the patient according to the parameters, conditions, and limits the patient has provided. The system 10 may optionally create an appropriate data structure to store the request for the release of information 282. The system 10 may optionally also create an authorization token, in addition to generating a number of keys 284, such as, for example, a key for a request number and a key for a health enterprise identifier. Alternatively, any number of additional keys might also be generated, such as, for example, a key for a patient sequence number, a key for an additional PIN, etc. These additional keys could also be generated as part of the key for the request number. In other words, the key generated for the request could incorporate information associated with the patient as well as information associated with a particular authorized release of information. The system 10 may then compress all of the indices (keys) into a single authorization key 286. The authorization key may also be encrypted for additional security. Those of ordinary skill in the art will also appreciate that the individual keys could also be encrypted before they are compressed. For example, the information associated with the health enterprise identifier may include an IP address and a port number or URL that the first enterprise wants to encrypt for security reasons.
The information associated with the keys may then be stored 288 in the authorization vault 74. As discussed below, the authorization vault may be used later in the process to validate a release authorization for an incoming request for information. The system 10 may generate 290 the optional authorization token 292 in any one of a number of available formats. For example, the key could be printed onto a piece of paper in a bar coded format or as any other text, coded, or graphical rendering; an RFID tag could be created; a magnetic medium or semiconductor device could be encoded; an optical medium could be encoded; any other computer-accessible medium could be encoded; or any other method readily known to those of ordinary skill in the art. After the system 10 finishes creating the optional authorization token 294, the first enterprise 20 may then allow the optional authorization token to be printed or encoded and the provider may then give it to the patient 296.
An optional PIN may also be generated or chosen and entered by the patient and associated with the release authorization. A common PIN could be used if more than one release authorization is generated, but while a common PIN could be used, a separate PIN for each could be used, or any combination. The PIN could be encoded and printed on the bottom of the optional authorization token, which could include a perforation so that the PIN can be kept separate simply by tearing the token into two. An example of an optional authorization token 300 that is printed on paper and includes a separate PIN is illustrated in
It is contemplated that the optional PIN(s) could be alpha, numeric, or alphanumeric passwords that are memorized and easily remembered by the patient. The PIN(s) could also be biometric data that is read with the use of a voice recognition system, an iris reader, a fingerprint scanner, or any other biometric reader known to those of ordinary skill in the art. It should be noted that, besides a PIN, extra information can be associated with the release authorization for other uses, such as, for example, to trigger email alerts, etc.
The exemplary authorization token 300 includes a retrieval key 302 and a summary 306 of the information that will be released by the use of the authorization token. For example, the summary 306 may include a patient snapshot, a medication profile, an immunization profile, current and historical selected encounters. The authorization token 300 also includes information 308 associated with the first enterprise 20, such as a telephone number, a mailing address, an email address, a network address, information regarding how information to be released may be requested, etc. While information that identifies the patient associated with the release authorization 300 could be printed on the token, it is most likely the case that no revealing information would be printed on the authorization token 300. The authorization token 300 may also include an additional key 310 encoding a PIN located below a perforation 312. As discussed previously, the method of using an authorization token is optional, as the information needed to initiate a request to transfer information may be provided verbally by the patient, by pre-coordination between entities with established relationships, via an electronic request authorization, etc.
A plethora of alternative embodiments for the optional authorization token are envisioned. Some examples include smart cards; ticket vouchers; cards with a magnetic strip applied to a surface; cards that are printed with optically readable material such as ink; cards with magnetic, optical, or semiconductor storage; cards with embedded RFID tags; any other computer-accessible medium; etc. An example of a printed card is illustrated in
Referring again to
If the patient has access to the first enterprise through a system similar to the system 220 from
At block 320, the second enterprise 30 then validates that the keys entered are of a valid format 322, builds a request string with a return address 324 for the second enterprise 30, and attaches any additional information, such as information about the second enterprise 30. This information may be used for auditing purposes or for generating alerts at the first enterprise 20. It could also be used as part of a determination regarding a version of the data that has previously been sent from the first enterprise 20 to the second enterprise 30.
The second enterprise 30 then generates a request 326 by identifying and then establishing 330 a communication channel with the EHR 1 system, 328. The first enterprise 20 may then process the request for information and, at block 332, authenticate the validity of the request for information from the second enterprise 30 by processing a validation request 334. This could include determining that the request includes the correct patient, the correct PIN, the correct key, etc. Processing the request for information 334 could also include retrieving information associated with the release authorization, such as, for example, information related to which patient is associated with the release authorization and what information the release authorization authorizes to be released. This could also include validating the requester by determining if the second enterprise 30 is a valid and appropriate user and/or organization. The message authentication manager 56 may assist in this determination by authenticating that the message is coming from where the message says it is coming from. Further, the second enterprise 30 may choose to use a third-party to facilitate the sharing of information, for example, a clearinghouse or any entity empowered to store PHI on behalf of the second enterprise 30.
Information to be transmitted can be generated in a variety of formats to accommodate differing levels of interoperability standards. For example, information could be transmitted as unstructured text, structured text, coded data, or any mixture thereof. The information may also be transmitted in a format conforming to any defined protocol.
At block 336, the first enterprise 20 may then send the authorization approval status back 338 to the requester 314 and may then confirm that the authorization token is still valid, and not previously used, revoked, expired, etc. The requestor 314 may then send a request 340 back to the first enterprise 20 generate the authorization. The first EHR 328 may then validate the authorization 342, store an audit copy of the authorization in the authorization vault 74, and generate a validation result 344. At block 346, the first enterprise 20 may generate the authorization 348. Information associated with the release authorization and the validation may be stored 350 in the authorization vault 74 for audit purposes and to mark the release authorization as having been used. If the first enterprise 20 validates the request, requested information is retrieved and sent 352 to the second enterprise 30. The second enterprise 30 then presents activity information 354 to an employee at the second enterprise 30 regarding the status of the requested information. At block 356, the second enterprise 30 receives the information synchronously, stores 358 with proper indices the sent information in the document store 86, and sends a receipt status 360 to the first enterprise 20.
A confirmation receipt may be generated 362 and stored 364 in the authorization vault 74 at the first enterprise 20. The first enterprise 20 may close 366 the communication channel with the second enterprise or resend any information that failed to be transmitted, as well as updating information on the release authorization (expiring if one time use, etc.). At block 368, the second enterprise 30 then notifies 370 the staff 310 to continue with the check-in workflow. The staff 310 then may complete 372 the patient 304 check-in. The information is then available at the second enterprise 30. At block 374, the patient may see the second provider 376. During consultation, the second provider 376 may request 378 the received external information from the requestor 314. The requester 314 may then retrieve 380 the external information from the document store 86, and the document store 86 may return 382 the information to the requester 314. The requestor 314 may then display 384 the external information to the second provider 376. After the second provider consults with the patient, the patient can request a release of information back to the first provider at the first enterprise 20. The process of creating this return authorization may be streamlined by including it at any point in the above process or doing it as a separate step.
The information retrieved for transmission may be sent in several different formats, such as PDF, XML, Word, CDA (an implementation template that validates the information in it before it is transported), CCR (a document template with sections), etc. If the information is sent in only one format, the transformation engine 52 could be used to convert it into other formats. Information transmitted may be accompanied by a basic set of information, such as the author, organization, version, date/time created, etc. as appropriate. An index page may also be generated along with the information that the patient has agreed to share. When the information is stored in the documents store 86 at the second enterprise, it may be stored as external information to the patient's chart.
The flow diagram 300 thus illustrates how the sensitive information stored at the first enterprise 20 may be shared with another enterprise without ever giving the other entity the ability to create, modify, or delete the existing information stored at the first enterprise, which ensures the integrity of the data while simultaneously protecting the data from unwarranted access.
At block 422, the second enterprise 30 then validates that the keys entered are of a valid format 424, builds 426 a request string with a return address for the second enterprise 30, and attaches any additional information, such as information about the second enterprise 30. This information may be used for auditing purposes or for generating alerts at the first enterprise 20. It could also be used as part of a determination regarding a version of the data that has previously been sent from the first enterprise 20 to the second enterprise 30.
The second enterprise 30 then generates a request 428 by identifying and then establishing 430 a communication channel with the first enterprise 20. The first enterprise 20 may then process the request for information and, at block 432, authenticate the validity of the request for information from the second enterprise 30. This could include determining that the request includes the correct patient, the correct PIN, the correct key, etc. This could also include validating the requester by determining 434 if the second enterprise 30 is a valid and appropriate user and/or organization. The message authentication manager 56 may assist in this determination by authenticating that the message is coming from where the message says it is coming from. The organization requesting the information can be a third party organization, such as a clearinghouse or any entity empowered to store PHI on behalf of the receiving organization. The first enterprise 20 may then send 436 an approval status to the second enterprise 30. The second enterprise 30 may then send 438 the request to the first enterprise 20.
Information to be transmitted can be generated in a variety of formats to accommodate differing levels of interoperability standards. For example, information could be transmitted as unstructured text, structured text, coded data, or any mixture thereof. The information may also be transmitted in a format conforming to any defined protocol.
At block 440, the first enterprise 20 may then confirm 442 that the release authorization is still valid, and not previously used, expired, revoked, etc. Information associated with the release authorization and the validation may be stored in the authorization vault 74 for audit purposes and to mark the release authorization as having been used 444. If the enterprise 20 validates 446 the request, at block 448, the first enterprise 20 generates 450 a summary list of what information will be transmitted to the second enterprise, and the summary list is transmitted 452. The first enterprise 20 then triggers an asynchronous process 453 to generate and send the information authorized for release to the second enterprise 30.
The second enterprise 30 receives the summary list, saves the expected deliverables, and prepares to receive the information. At block 454, the status is displayed to the check-in staff 412 at the second enterprise wherein the staff is instructed 456 to continue with the check-in of the patient. The check-in staff 412 may then complete 458 the check-in process and send 460 a receipt status back to the first enterprise 20. The first enterprise 20 may then send 461 a confirmation of delivery to the authorization vault 74, and the authorization vault 74 may audit 463 the authorization and store the audit in the vault 74.
At block 462, the requested information is generated 464 and sent 466 to the second enterprise 30. The first enterprise 20 asynchronously sends 466 the information to the second enterprise 30, and the second enterprise 30 may store 468 the information in the second document store 469 as it is received. The first enterprise 20 may store 471 the information in the first document store 473. The second enterprise 30 updates the summary list and updates the status in the document store 86 so that the appropriate entity, e.g., check-in staff, or other system user e.g., care provider, or other designated entity within the organization is notified when the all information has been received. The second enterprise then sends 470 the first enterprise 20 confirmation receipt(s) for the information received.
The confirmation receipt(s) may be stored 472 in the authorization vault 74 at the first enterprise 20. The first enterprise 20 may close 474 the communication channel with the second enterprise or resend any information that failed to be transmitted, as well as updating information on the release authorization (expiring if one time use, etc.). At block 476, the information is then available for viewing by the second provider when the patient sees 478 the provider 406. The second provider 406 may then request 480 the information from the second enterprise 30 and the enterprise may retrieve 482 the information from the document store 469. The store 469 may return 484 the information to the enterprise 30 and the enterprise will show 486 it to the provider 406. After the second provider consults with the patient, the patient may request a release of information back to the first provider at the first enterprise 20.
The information retrieved for transmission may be sent in several different formats, such as PDF, XML, Word, CDA (an implementation template that validates the information in it before it is transported), CCR (a document template with sections), etc. If the information is sent in only one format, the transformation engine 52 could be used to convert it into other formats. Information transmitted may be accompanied by a basic set of information, such as the author, organization, version, date/time created, etc. as appropriate. An index page may also be generated along with the information that the patient has agreed to share. When the information is stored in the documents store 86 at the second enterprise, it may be stored as external information to the patient's chart.
The optional authorization token shown in the form of an authorization card in
This process would include the input of the authorization key from the authorization card by a staff member associated with the enterprise treating the patient, establishing a communication channel with the patient's home enterprise and the communication of a request for information back to the patient's home enterprise. The treating enterprise may also combine the keys, regenerate communications sequences, attach its own address information, as well as any additional information.
The home enterprise may then process the request for information and authenticate the validity of the request from the treating enterprise. The home enterprise may check for expiration of the release authorization and authenticity of the treating enterprise. The home enterprise may then generate basic summary of information that has been authorized for release from the home enterprise. The home enterprise may then receive a confirmation from the treating enterprise.
The treating enterprise receives the information and stores the information transmitted as external information in a memory with proper indices. The treating enterprise may report back to the home enterprise whether the information was received properly. The home enterprise may close the communication channel with the treating enterprise or resend any information that failed transmission to the treating enterprise. The home enterprise may update audit information on the release authorization, and the treating enterprise may instruct the check-in staff to continue with the workflow.
Although the technique for providing organizations the ability to allow for the convenient, secure, and expedient sharing of patient information between separate systems described herein is preferably implemented in software, it may be implemented in hardware, firmware, etc., and may be implemented by any other processor associated with an organization. Thus, the routine(s) described herein may be implemented in a standard multi-purpose CPU or on specifically designed hardware or firmware as desired. When implemented in software, the software routine(s) may be stored in any computer readable memory such as on a magnetic disk, a laser disk, or other machine accessible storage medium, in a RAM or ROM of a computer or processor, etc. Likewise, the software may be delivered to a user or process control system via any known or desired delivery method including, for example, on a computer readable disk or other transportable computer storage mechanism or over a communication channel such as a telephone line, a network such as the Internet, etc. (which are viewed as being the same as or interchangeable with providing such software via transportable storage medium).
It will be appreciated that the invention has applications in other areas beyond healthcare records, where security of access to personal sensitive data is an issue. For example, personal financial information (lists of bank accounts and access to them, share portfolio access, pension find review access, personal utility bill accounts, etc.) accessed by financial advisors/accountants/attorneys/or other disciplines may need access to a range of sensitive personal data kept on the servers of different entities. Access to sensitive results/information held in different entities could also extend to physical/national security issues and the police or government agencies may have a need to have an audit trail of access to criminal records, the existence and location of weapons, and their current states, nuclear plants and radioactive materials: all sensitive. The invention would find application in areas beyond patient information, but we are choosing to limit the protection we are seeking to that area to enhance intelligibility of the patent application.
While the present invention has been described with reference to specific examples, which are intended to be illustrative only and not to be limiting of the invention, it will be apparent to those of ordinary skill in the art that changes, additions or deletions may be made to the disclosed embodiments without departing from the spirit and scope of the invention.
This application claims benefit of the following U.S. Provisional Applications: Ser. No. 60/655,733, entitled “System And Method For Facilitating Cross Enterprises Data Sharing In A Healthcare Setting” filed Feb. 24, 2005 (attorney docket no. 29794/41011), and Ser. No. 60/660,390, entitled “System And Method For Facilitating Cross Enterprises Data Sharing In A Healthcare Setting” filed Mar. 10, 2005 (attorney docket no. 29794/41011A), the disclosures of which are hereby expressly incorporated herein by reference.
Filing Document | Filing Date | Country | Kind | 371c Date |
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PCT/US06/06972 | 2/24/2006 | WO | 00 | 8/19/2009 |
Number | Date | Country | |
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60655733 | Feb 2005 | US | |
60660390 | Mar 2005 | US |