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[Electronic dataflow management in radiotherapy: routine use of the DICOM-RT protocol].

The DICOM standard protocol of medical image exchange and its extensions to radiotherapy data has been implemented in order to enable electronic communication between all modalities within our radiology and radiotherapy departments. The network architecture used for radiotherapy includes as basic elements one CT simulator, several treatment planning systems, one linear accelerator fitted with multileaf collimator, one electronic portal imaging system and several laser imagers. As customary in radiotherapy departments, our equipments are heterogeneous with respect to manufacturers and computer operating systems. Choosing to resort to the DICOM-RT protocol spared us the acquisition of a proprietary information system because its elementary inter-connectivity characteristics can effectively be used for dataflow management. It has the advantage to minimally change the user's way of working since the electronic data transfer is taking place sequentially from one workstation to the other in a manner analogous to what is done with the paper document. Quality assurance management of treatments is simplified by the electronic nature of the transfers from the CT-simulation down to the accelerator since modalities interfaces, instead of users, are performing consistency checks. This process results in substantial time saving, but the DICOM computer interface is requiring a better skill that the one needed for operating standard office software. The DICOM-RT protocol is presently missing some functionality necessary for its integration into our hospital information system. Our experience is however showing that it represents a viable and promising solution for a small radiotherapy department.

Communication↗

Why British GPs use computers and hospital doctors do not.

Almost all general medical practitioners (GPs) in the UK use computers, compared with less than one in ten of hospital doctors. This paper explains how this unexpected situation came about over a thirty-year period, identifying some of the successes and failures of British medical computing along the way. Twelve separate factors are considered. The major determinants have not been technical, but rather a strong tide of political backing for general practice and leadership from the profession at the highest level, which have combined to build an appropriate regulatory framework and financial incentives that have encouraged GPs to embrace computers. Hospital computing has some difficulties not met by GPs, but the main factor preventing progress has been the lack of any real incentive positive (carrot) or negative (stick), for hospital doctors to use computers.

Attitude to Computers↗

Bedside vital signs capture for the non-ICU setting--an open source, PC-based solution.

The efficient and reliable capture of vital signs and other bedside data in the non-ICU setting has been a challenging problem for the medical informatics community. The problem is compounded by the complexities associated with storage of this data into an electronic medical record system (EMRS). There are a lack of off-the-shelf solutions that satisfy the basic system requirements of bedside data capture, user authentication, data validation prior to storage, error handling, and convenience. With the current state of technology available, we feel the solution to this problem requires the presence of a PC with custom interface software at the bedside. This allows for the successful interface between available vital signs capture devices, existing EMRS s, and the user. This report summarizes the alternatives we found and our proposed solution to this important problem.

Computer Security↗

Real time information from bedside monitors as part of a web-based patient record.

Traditional paper-based Medical Records, and even most of their digital counterparts, represent historical patient information. On the other hand new generations of Point-of-Care devices can be connected to standard networks and deliver streams of real time data through an Intranet, or even the Internet. Vital signs provided by IP-based devices can then be viewed at remote stations. Merging both worlds, real time and historical, in the pursuit of a comprehensive EPR is the main challenge of the present project. The basic infra-structure is composed of three main components: an existing Web-based EPR viewing station1 (Web-EPR); a fully integrated HIS/PACS system1; and a monitoring network (Siemens Infinity Network 2). Communication between the components was obtained by developing interfaces based on both HL7 and Siemens protocols the later only for waveforms. For the graphical display a web-browser-based application of the streamed signals was developed and integrated into the existing Web-EPR. This addition expanded the Web-EPR capabilities providing means to include real time signals and calculated parameters on the set of information already available. Some extra features of this project include: one-way SMS messaging of the parameters, interactive WAP access and a DICOM compliant storage of signal waveforms.

Computer Security↗

Electronic patient records for dental school clinics: more than paperless systems.

The Electronic Patient Record (EPR) or "computer-based medical record" is defined by the Patient Record Institute as "a repository for patient information with one health-care enterprise that is supported by digital computer input and integrated with other information sources." The information technology revolution coupled with everyday use of computers in clinical dentistry has created new demand for electronic patient records. Ultimately, the EPR should improve health care quality. The major short-term disadvantage is cost, including software, equipment, training, and personnel time involved in the associated business process re-engineering. An internal review committee with expertise in information technology and/or database management evaluated commercially available software in light of the unique needs of academic dental facilities. This paper discusses their deficiencies and suggests areas for improvement. The dental profession should develop a more common record with standard diagnostic codes and clinical outcome measures to make the EPR more useful for clinical research and improve the quality of care.

Computer Communication Networks↗

Training T.I.P.S.

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Computer Security↗

Cutting the cord.

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Computer Peripherals↗

Why I love my EMR.

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Attitude to Computers↗

[A telemedical multilevel server network system].

Telemedicine is a hot research focus. When we develop the telemedicine system, we find that in China the network condition can not fit the demands of the transregional telemedicine service. In order to improve the poor conditions, we have designed a set of telemedicine system based on distributed multilevel server network model. The paper expounds the structure and the working process of the system, then goes into the technology details in realizing it, finally discusses some relative questions.

Computer Communication Networks↗

[Follow-up, with Internet medical file, of patients who have undergone radical prostatectomy].

The development of Internet and the need for regular follow-up of patients often living a long way from hospital have led us to develop a follow-up dossier for patients with localized prostate cancer treated by laparoscopic radical prostatectomy. This feasibility study is based on 100 patients who agreed to test this system. After approval by the Commission Nationale d'Informatique et de Liberté (CNIL) (French Computers and Privacy Commission) ensuring medical secrecy and confidentiality of data, the website was opened on a server specifically devoted to this project and presenting all of the required computer securities. The website is composed of pages comprising the hospital discharge summary, and the operative and histology reports. A quality of life questionnaire based on assessment of urinary continence and sex life and a PSA assay form are also included. The patient is therefore able to enter his PSA level and complete the questionnaire at home and the results are then sent to the doctor who treated him. A contact page allows the patient and the doctor to exchange information by text. 92 of these 100 patients connected regularly to the site with a mean connection rate of 8 per patient (range: 1 to 22). 98% of patients were satisfied with the various sections of the site and 95% were satisfied with their medical file. 11% of patients encountered connection problems and 14% reported technical problems essentially attributed to incorrect PSA data entry or incorrect functioning of videos due to the absence of appropriate software. This type of Internet medical service for patients who have undergone a surgical operation requiring regular follow-up appears to be a useful approach for the future by allowing: maintenance of close contact between the patient and his doctors while avoiding the problems related to hospital visits, regardless of the patient's place of residence. It also provides general practitioners with access to the patient's file, with the patient's permission.

Feasibility Studies↗