INTRODUCTION
A total of 600,000 new cancer cases are estimated to be diagnosed in 2018-2019 in
Brazil1. Cancer formation results from
the carcinogenic process, also known as oncogenesis, which is responsible for
uncontrolled cell proliferation. A tumor only becomes visible after several
stages, including loss of cutaneous integrity and infiltration of malignant
cells into the skin structures, forming neoplastic wounds2. Among the predicted 600,000 new cancer cases,
approximately 5–10% of patients will have tumor wounds, a more common condition
in patients undergoing palliative care, which also increases due to primary
tumors, secondary tumors, or recurring disease3,4.
Therefore, the team must treat these lesions appropriately to maintain patient
comfort or, at least, minimize the discomfort resulting from this type of
injury. Thus, these professionals seek to devise strategies that allow more
accurate record of patient history, aiding in the development of an effective
treatment plan5,6.
Therefore, technologies are commonly incorporated in patient care. Among them,
digital photography is used for the documentation that facilitates recording the
cicatricial evolution of the wounds. This practice positively facilitates proper
communication among the team members, affecting the quality of care, providing
support for the professional decision-making, and minimizing time and costs of
treatment and patient suffering7,8.
In a systematic review on the methods used to evaluate wounds performed by
Jørgensen et al.9, digital planimetry and
imaging were considered the most accurate and reliable methods in measuring
specific areas, especially large and irregular wounds. Until now,
three-dimensional technologies have not yet been able to overcome this method
due to their low accuracy, high cost, handling complexity, and difficult system
interpretation.
OBJECTIVE
To report a case that used digital photography as a facilitator in the evaluation
and treatment of a complex cancer wound
METHODS
This case report is conducted by evaluating the data extracted from an electronic
medical record. Photographic records obtained during the treatment of a tumor
wound between November 2017 and March 2018 were analyzed. The research was
approved by the Research Ethics Committee of the Association of Social Pioneers,
with the Certificate of Presentation for Ethics Evaluation no.
90589618.6.0000.0022.
The photographic records were obtained using digital cameras of cell phones in
the nursing team. The images were taken during dressing procedures, with the
patient in the supine position, accommodated in a ward with ambient light. Data
were analyzed and correlated to the number of media attached to the electronic
patient record; clinical, photographic, and imaging conditions; scenario; and
materials used for the assessment and analysis. Qualitative and quantitative
data on the affected region, dimensions, appearance, solution of continuity,
three-dimensional volume, and presence of necrosis and granulation tissues were
obtained using the images.
CASE REPORT
A 31-year-old woman was admitted with a history of left thigh lesion 9 years ago.
She has undergone two surgical procedures for tumor excision in another medical
service, without confirmation of the diagnosis. She had recurrence and was
admitted to our hospital. The physical examination revealed an infiltrative,
expansive lesion measuring 20.0 × 18.3 cm on its larger dimensions (Figure 1).
Figure 1 - The patient was admitted presenting an infiltrative, poorly
delimited, ulcerated, infected tumor, measuring 20 × 18.3 × 13.7 cm,
heterogeneous tumor protrusion with necrotic area and cutaneous
discontinuity. MRI revealing an expansive lesion with aggressive
characteristics, and infiltrative aspect, compromising the
musculature in the anterior compartment in the left thigh, with skin
ulceration and bulk protruding tumor component through the cutaneous
discontinuity area. The tumor had a heterogeneous signal, allowing
delimitation areas with hypersignal, probably secondary to
necrosis.
Figure 1 - The patient was admitted presenting an infiltrative, poorly
delimited, ulcerated, infected tumor, measuring 20 × 18.3 × 13.7 cm,
heterogeneous tumor protrusion with necrotic area and cutaneous
discontinuity. MRI revealing an expansive lesion with aggressive
characteristics, and infiltrative aspect, compromising the
musculature in the anterior compartment in the left thigh, with skin
ulceration and bulk protruding tumor component through the cutaneous
discontinuity area. The tumor had a heterogeneous signal, allowing
delimitation areas with hypersignal, probably secondary to
necrosis.
The biopsy and histopathological examination showed a grade 3 biphasic synovial
sarcoma classified by the Federation Nationale de Centers de Lutte
Contre le Cancer, associated with immunohistochemical and
cytogenetic study. Nuclear magnetic resonance imaging in the left thigh at
admission (Figure 1) revealed an expansive
lesion with aggressive features, and infiltrative appearance, affecting the
anterior compartment muscles in the left thigh, with skin ulceration, and bulk
tumor component through the cutaneous discontinuity area. The finding has a
heterogeneous signal, which possibly delimits areas with hypersignal, probably
secondary to necrosis.
No signs of bone involvement were found, the part of the non-compromised muscles
was interposed between the femoral cortical and tumor lesion. Two satellite
nodular lesions were found near the upper margin of the lesion, with similar
signal characteristics. The lesion measured, in its largest diameters, 20.0 ×
18.3 × 13.7 cm, and the satellite lesions measured 3.6 × 3.4 × 2.4 cm and 4.3 ×
3.3 × 2.9 cm. Small lymph nodes were observed in the left inguinal region and
were partially evaluated during the examination.
Computed tomography of the chest was normal. The patient underwent wide tumor
excision in the left thigh. Follow-up was conducted with daily dressings, and
reconstruction with partial skin graft was performed in the follow-up.
A digital photograph was taken upon admission, which serves as the baseline
record of the image, identifying the cancer wound, such as the region affected,
dimensions, appearance, skin continuity solution, three-dimensional volume, and
presence of necrosis and granulation tissue (Chart 1). It also allowed correlation with clinical examination,
magnetic resonance imaging, and histopathological examination, providing
opportunities for all team members to evaluate the image at any time for
descriptive and comparative analysis. Changes in the treatment plan should be
guided during the follow-up or dressings (Figures 2–4).
Chart 1 - Photographic evaluation of quantitative and qualitative
aspects.
Quantitative aspects |
Size |
Continuity |
Circumference |
Color |
Qualitative aspects |
Improvement |
Worsening |
Stable |
Chart 1 - Photographic evaluation of quantitative and qualitative
aspects.
Figure 2 - Follow-up of dressings until the 6 th postoperative
day (PO), and with the changes of treatment with the introduction of
dressings with sterile Aquacel® from the 6 th to the 8
th PO.
Figure 2 - Follow-up of dressings until the 6 th postoperative
day (PO), and with the changes of treatment with the introduction of
dressings with sterile Aquacel® from the 6 th to the 8
th PO.
Figure 3 - Follow-up of dressings up to the 12 th postoperative
day (PO) with Aquacel®, with progressive improvement, and record
after therapeutic change with Hidrogel® from 17 th to 26
th PO. Skin grafting performed on the 42
nd PO.
Figure 3 - Follow-up of dressings up to the 12 th postoperative
day (PO) with Aquacel®, with progressive improvement, and record
after therapeutic change with Hidrogel® from 17 th to 26
th PO. Skin grafting performed on the 42
nd PO.
Figure 4 - Progression follow-up of the first week after partial skin
grafting, with integration of approximately 90% of the graft to the
recipient area and the result in the second postoperative
month.
Figure 4 - Progression follow-up of the first week after partial skin
grafting, with integration of approximately 90% of the graft to the
recipient area and the result in the second postoperative
month.
DISCUSSION
Visual communication has been an important tool from the earliest days of human
history, even before writing. We have tried to improve the communicating methods
through imaging, allowing the observer to understand what they see, absorb the
image, associate with their previous knowledge, and process it in order to draw
their own conclusions.
The photo interpretation consisted of qualitative and quantitative data analysis
of the photographic image considering the criteria presented in Chart 18. The analysis of photographic records facilitated obtaining and
evaluating the image, mainly because the object could not be touched and the
wound was complex. The acquisition of images according to photographs has been
used by plastic surgeons for a long time for pre-, trans-, and postoperative
records10.
Many authors propose standardizing photograph procedures to obtain images that
improve the evaluation of results11.
Tavares et al.12 described the need for
photographs and reports in the patient’s medical records in order to document
their diagnoses, treatments, and progress. Taking this tool into consideration,
besides being a duty, it is a source of scientific knowledge, and a great ally
in the potential juridical processes; besides, the authors described a technique
in taking transoperative photographs.
The images presented in this study were easily acquired by the professional
during the dressing procedure, and the images could be shared with all the team
members that managed the patient. Additionally, these images can be used as an
important tool in changing the treatment plan, such as the products used during
dressings, the time to perform skin grafting, and the wound conditions after
skin grafting Moreover, the images were used as a teaching material and as a
legal document.
CONCLUSION
The use of photography significantly facilitates the evaluation of a complex
wound healing, allows taking images that facilitate the diagnosis, measurements,
and surgical programming. It assisted all team members during the follow-up and
intervention. Furthermore, data acquisition was rapid, could be shared, and
facilitated interdisciplinary communication, which allowed designing strategic
plans for the treatment, and are considered legal document tools as well as for
teaching purposes.
COLLABORATIONS
BBC
|
Data analysis and/or interpretation; data acquisition; conception and
study design; methodology; and validation.
|
KTB
|
Data analysis and/or interpretation; methodology; and writing:
manuscript preparation.
|
HJA
|
Writing: review and edition; supervision.
|
MIZG
|
Supervision.
|
REFERENCES
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1. Rede Sarah de Hospitais de reabilitação,
Brasília, DF, Brazil.
Corresponding author: Barbara Braga Cavalcante, SMHS, 501 Bloco A -
Brasília, DF, Brazil, Zip Code 70335-901. E-mail:
13516@sarah.br
Article received: September 21, 2018.
Article accepted: October 4, 2018.
Conflicts of interest: none.