Professor GA Panshin
FGBU "Russian
Scientific Center of Radiology" of the Ministry of Health of Russia,
Moscow, Russia
The results of a combined use of X-ray and low-intensity laser radiation
in the treatment of degenerative and inflammatory diseases of osteoarticular
apparatus
Introduction
Inflammatory and degenerative-dystrophic diseases of
bones and joints that do not have up to date pathogenetic treatments are of
great socio-economic importance because of their high prevalence, frequent
disability of patients, especially the older age groups, as well as associated
with them, as a rule, a significant reduction in quality of life, leading,
eventually, to a significant negative impact on their economic and
psychological state (1, 7, 8, 11, 13,14, 15, 18, 22, 23, 24, 28, 29, 34, 35).
In addition to medical treatment, to the methods of
the local, including, and analgesic effects of this pathology include
physiotherapy, massage, physical therapy, x-ray and laser therapy, and during
exacerbation - magnetic therapy, ultraviolet irradiation erythema dose, mud,
hydrogen sulfide, radon and pine baths (1, 2, 3, 4, 5, 6, 7, 8, 10, 11, 16, 17,
20, 21, 25, 26, 30, 32, 35, 36, 38).
I would like to emphasize the fact that the use of surgical treatment
for degenerative - dystrophic diseases of large joints is very wide and very
specific problem, and, as a rule, is in this situation, the final and radical
step of special treatment in the case of failure to use all of the existing
modern therapeutic options (13).
To date, of
all the non-neoplastic diseases, which used symptomatic radiation therapy (in
most cases it
X-ray radiotherapy), are dominated
by degenerative and inflammatory degenerative bone and joint diseases – osteoarthritis,
scapulohumeral periarteriity, spondylitis, osteochondrosis, heel and elbow
bursitis, epicondylitis, rheumatoid arthritis, accompanied by reactive
inflammation of soft tissue and severe pain. Providing anti-inflammatory effect
on the soft tissues surrounding the joint, radiation therapy leads to a
reduction or complete disappearance of pain, thereby increasing the range of
motion in the joints or spine. As follows from the numerous studies on the use
of anti-inflammatory radiotherapy subjective improvement occurs already during
irradiation in approximately 60 - 70% of patients, and the full realization of
the effect is usually observed after 2 - 2.5 months after treatment. It often
is possible to dramatically reduce the dose of painkillers and
anti-inflammatory pharmaceuticals that are used, as a rule, from the onset and
duration of which are often indifferent to the body (1, 3, 7, 8, 14, 15, 16, 17,
21, 28, 29, 30, 32, 36).
The main group of
patients are those over 50 years outside the reproductive age. Due to the age
of patients and the presence of concomitant diseases, which prevent
physiotherapy, radiotherapy is often the only possible method of treatment,
since even the transferred patients with myocardial infarction and dynamic
cerebral circulation are not contraindications to its performance.
Main effective factor
when irradiated non-neoplastic diseases is its direct effect on the diseased
organs and tissues. Other variants of radiation exposure can be applied only in
exceptional cases. In this case, radiation therapy should be performed using
the most gentle way of irradiation, in which the absorbed dose in the
pathological focus will be the most effective in this clinical situation, and
healthy tissues and vital organs, localized in the vicinity of its location,
will be secured from the action ionizing radiation (3, 7, 8, 9, 11, 14, 16.18,
19, 24, 29, 38).
By absolute
contraindications to radiotherapy nonmalignant diseases include the general
plight of the patient with a sharp weakening of immunity, severe concomitant
diseases of the cardiovascular, respiratory, hepatic, renal decompensation,
leuko-thrombocytopenia,
severe anemia, radiation sickness and radiation damage in history,
tuberculosis, mental illness, loss of orientation in time and space.
Besides radiotherapy
nonmalignant diseases prohibited for children and pregnant women. Limited its
application in the childbearing age, especially when the irradiation zone get
organs of internal secretion, and central nervous system.
Relative contraindications are also acute
septic and infectious diseases, inflammatory changes in the irradiation caused
by a variety of physical and chemical agents, including physiotherapy.
It should be noted
that the invention of lasers, fundamentally new sources of coherent
monochromatic light emission, identified a new trend in medicine - laser
therapy. They were introduced into medical practice recently, about 30 years
ago, and yet, the success of their application in medicine today are clear and
very impressive. Study the effects of low intensity laser biostimulation
radiation opened broad prospects for laser applications in almost all areas of
medicine, and in properly selected therapeutic doses of laser treatment is
absolutely harmless. The use of laser therapy in the outpatient environment has
increased the efficiency of treatment of patients with orthopedic trauma and 10
to 15%.
Thus, on the
basis of experience gained as a result of comprehensive research laser therapy
is widely used as a prophylactic and therapeutic purposes in various diseases
of the musculoskeletal system, including the treatment of orthopedic and trauma
patients, using techniques such as outdoor and invasive (intravenous,
intra-articular, intraosseous) exposure (2, 4, 5, 9).
Due to the high clinical efficacy, a wide range of indications for use
with a small number of side effects, the simplicity of the procedures and the
use of high efficiency, laser therapy has become one of the main methods of
rehabilitation of patients with disorders of the musculoskeletal system. In
view of the pathogenetic mechanism of action of laser radiation on the
indications for laser therapy developed, including diseases of the
musculoskeletal system in the form of osteochondrosis with radicular syndrome,
inflammatory diseases, bone and joint exchange etiology in the acute stage of
arthritis and arthritis, diseases and traumatic injuries of muscles and
ligaments (myositis, tendovaginitis, bursitis) occupy a very important place.
Among
the absolute contraindications for laser therapy are blood diseases, including
reducing its coagulation, as well as various types of bleeding.
Materials and methods
We observed for
more than 5 years were 3 groups of patients, a total of 122 people, aged 30 to
75 years, who received X-ray and laser therapy in monorezhimnom variant, and in
terms of their combined effect in the treatment of degenerative and
inflammatory disease shoulder, knee and ankle joints.
In this case, the first group consisted of 50
patients treated with radiotherapy, of which the main diagnosis was made in 15
with the localization process in the shoulder joint, 20 - and 15 knee - ankle.
In the second
group of 42 patients treated with laser therapy, the primary diagnosis was
diagnosed, respectively, the localization process, 14, 15 and 17 patients.
In the third group
of 30 patients were combined (X-ray - laser) treatment with an equal distribution of patients in each
location of the main process (for 10 people).
The method of
combined therapy was daily for consecutive weeks of sessions of laser therapy
during treatment for 3 days (every other day), X-ray, with the interval between
treatments to 30 minutes.
In this case, the
criteria for evaluating the effectiveness of the treatment is to decrease until
the complete disappearance of pain and increase range of motion in affected
joints.
Indications for
treatment were determined based on the patient's condition, medical history of
the underlying disease and the effectiveness of the previously or that kind of
special treatment.
The policy plan
during X-ray treatment used
such physical and technical conditions of irradiation as voltage, current,
source-surface distance (SSD), filters with the constitutional features of the
patients.
Given the nature
of the anti-tumor doses of ionizing radiation to use the minimum dose possible
for optimal clinical effect. As a rule, single focal doses were 0,3-0,5-0,7 Gy
and were brought to a total focal dose order of 4-6 Gy irradiation rhythm 3
times a week (every other day).
It must be
stressed that the key to successful treatment is the careful observance of
every patient with a planned installation, taking into account the clinical and
radiological data, methods of exposure.
Thus, irradiation
of the shoulder joint was used 2-dipole radiation technique using the anterior
and posterior fields, size, usually 10 to 15 cm and IRP - 40 cm In this case,
the technical conditions of irradiation were as follows: voltage - 180-200 kV ,
current - 10 mA, filter - 1.0 mm copper.
The pathology of
the knee joint irradiation was carried out with 2 lateral fields (medial and
lateral), size, usually, 8-10 to 10-15 cm at IRP - 40 cm, voltage - 180-200 kV,
a current - 10 mA, using a copper filter - 0.5-1.0 mm.
With the
localization of the main process in the ankle irradiation was also carried out
on 2-dipole method with the use of lateral fields of 8-10 to 10-15 cm at IRP -
40 cm, voltage - 150-180 kV, a current - 10 mA, using aluminum - 3 mm and 0.5
mm copper-filters.
Laser therapy was administered daily for 4-12
minutes with a low-intensity laser that generates the laser light in a
continuous mode and Q-switched mode and providing for the change of power at
the end of the fiber in the range of 5-50 MW and a frequency of 80 - 1000 Hz.
In this case,
laser treatment include the use of labile contact method, which eventually
permitted a uniform volume irradiation of the affected joint.
Physical
parameters of the impact of low-intensity laser treatment osteoarthritis in study groups
of patients were characterized by the following data:
the localization
process in the shoulder joint stable technique used laser irradiation with 2
fields with output power equal to 5mW, frequency - 80 Hz exposure and exposure
for 2 minutes;
with lesions of
the knee used labile irradiation technique using 4 fields with output power of
40 mW, frequency - 100 Hz and the treatment time for 3 minutes;
at osteoarthritis ankle, as well as
the shoulder joint, the method used is stable exposure, but now with the use of
3 fields in the output power of 50 mW and a frequency of 1000 Hz, with an
exposure of therapeutic effects for 4 minutes.
Findings
A comparative analysis of the results revealed that in all cases of only treatment option
using or X-ray or laser irradiation was aggravation of pain after
the start of the therapeutic intervention. However, with their combined use, on
average, only half of the patients had a worsening of the underlying disease. In this case, the reduction in the treatment
of pain in only X-ray or only laser irradiation,
on average, after 7-8 sessions of X-ray and 9-10 sessions of laser therapy,
whereas in the combined treatment - after 4-5 sessions.
Significant,
up to complete, relief of pain and increase range of motion in the joints were
observed in 44 of 50 patients (88.0%) of the first group and was shown, usually
30-40 days after
X-ray treatment, 34 of 42 (80.9%)
patients of the second group - 20-40 days after laser therapy, and in 28 of 30
(93.3%) patients in the third group, on average, 15-20 days after the end of
the combined use of these two methods of therapeutic intervention .
In general, side effects associated with conducting
the above treatments degenerative and inflammatory diseases of bones and joints
of the device during their execution, as well as short-and long-term period
after the end has been identified.
Recurrence in the treated areas, as a rule, there were
3.5 years after the end of treatment in the first and second groups, and after
4.5 years - in the third group of patients. Undoubtedly, this fact proves, in
the end, good tolerability and significant efficacy as X-ray and
laser treatment not only in independent version,
but, especially, in their combined use.
Discussion
X-ray radiotherapy is one of the local methods of treatment, although, unfortunately, to
date, has a sufficiently broad clinical use, despite the fact that it is well
designed and defined the precise indications for its use. This is due to the
fact common among physicians and patients about the opinion of a significant
risk of the specific effects of irradiation (radiation damage, secondary
tumors), which to date has not confirmed the actual facts (7, 8, 11, 14, 27,
31, 34, 37).
At the same time, the local
non-specific anti-inflammatory and analgesic effect of radiotherapy has been
known for a long time (3, 7, 8, 14, 15, 17, 24, 25, 32, 35, 36, 38), and
positive effects from its use in most possible cases, even when all other
methods of non-drug treatments are ineffective.
These data are confirmed in numerous
publications, both domestic and foreign researchers, showing real performance X-ray radiotherapy, and is based
on a synthesis of more than a century of experience in clinical application of
radiation therapy and achieved to date results of radiobiological studies. So,
Seegenschmidt M. H. and colleagues studied the experience of 134 German
institutions, 30 university hospitals and 104 hospitals in radiotherapy in
patients with non-tumor diseases 20,082 in 1994, 1995 and 1996 (33, 34, 35,36).
The authors stated that
radiation therapy is commonly used and effective form of treatment of many
non-neoplastic diseases.
It should be noted that the
study of long-term results of radiation therapy as a non-neoplastic diseases in
our country and abroad showed no complications or adverse consequences of its
use in remote periods after treatment.
In this respect deserves to research carried out
in our country M.V.Makarova Application X-ray radiation therapy in the symptomatic treatment
of osteoarthritis of the limbs. In particular, she pointed to the example of
the treatment of 412 patients with primary arthritis of the joints of different locations that the method of
X-ray small doses does not lead to the development of radiation-induced tumors
in the field of radiation, including to morphological changes in the skin, get
more than just a pathological hearth, the dose of ionizing radiation. These
results were obtained on the basis of qualitative and quantitative
morphological analyzes of biopsies 12-15 years ago exposed skin compared with
symmetric non-irradiated areas to identify microscopic late radiation damage
(8).
However, in spite of the pathogenetic basis and adequacy of the high
efficiency of radiation therapy degenerative and inflammatory diseases of bones
and joints system, to further improve the results of treatment of this disease,
is a very complex and social problems for the world community, the need to
search for new perspective and relatively safe methods of therapeutic effects,
which include, in particular, further emission efficiency of laser radiation
(12).
The positive effects of laser therapy has helped expand the volume of
orthopedic care to patients of advanced age, with concomitant diseases of the
cardiovascular and endocrine systems, in particular, in patients with diabetic
angiopathy and arthropathy, as well as significantly improve the efficiency of
providing care to patients with severe large joints with reflex back pain syndromes,
and early arthritis of various locations.
In this case, it must be emphasized that the combination of laser with
other medical factors including radiation therapy, along with minimal risk to
the patient, it is very promising method of treatment not only of various
diseases of the musculoskeletal system, but the vast majority of non-neoplastic
diseases and certainly deserves more widespread use in clinical practice.
Findings
Thus, the analysis of the results of X-ray and
low-intensity laser treatment, mainly pain and limitation of motion in
degenerative and inflammatory diseases of osteoarticular apparatus showed the
highest efficiency is at their combined use. Here, as at the time of
therapeutic procedures, as well as during the subsequent long period of
observation of patients for more than 5 years did not reveal any adverse
effects on the method of treatment. Along with the efficiency of this method of
treatment non-neoplastic diseases advantage of it is also in the simplicity and
the possibility of exposure of the majority of patients in the outpatient
setting, which makes it a cost-effective and feasible in the absence of a
positive effect of other therapeutic measures.
At the same time, we believe that to be effective
therapy nonmalignant diseases that our country is very complex and socially
significant problems, an integrated approach to solving it, including through
the development of promising new and relatively safe treatment, in addition to
the existing today radiation and laser therapy.
Literature
1. Leonid Alexeev Drug treatment of
osteoarthritis. / / Russian Journal of Medicine, 2002, 10, 22 (106) 996-1002. 2.
Berglezov MA Vyalko VV, VI Ugnivenko Low-energy lasers in traumatology and
orthopedics. M., 1998. 3.
Boreyko SB, TF Tikhomirov, VV Rozhkovskaya et al. Comparison of results of
treatment of inflammatory and degenerative joint disease using gamma and X-ray
/ / radiological materials Nevsky Forum, St. Petersburg, 2005, p. 387.
4. Buylin VA Low-level laser therapy of diseases of the joints. Moscow,
2000, 35 p. 5. Buylin VA Application ALT
"Mustang" in the treatment of osteoarthritis. / / Information and
methodical collection / Edited by Corresponding Member. RAMS DC Skobelkina. MA,
LLP "Engineering Firm", 1996, 34 p . 6. Vezikova NN
Evaluating the effectiveness of disease-modifying drugs, and local therapies
for osteoarthritis of the knee. / / Dis. Dr. med. Sciences, Yaroslavl, 2005,
209 p. 7.
Kishkovsky AN, Dudarev AL Radiotherapy nonmalignant diseases. / / Moscow,
Medicine, 1977, 175 p. 8. Makarova MV
Ortovoltnaya radiotherapy in the symptomatic treatment of osteoarthritis of the
limbs. / / Diss. Candidate. honey. Science., Arkhangelsk, 2009, 219 p. 9.
Moskvin S., Azizov GA Intravenous laser irradiation of blood. / / M, NPLTS
"Technology", 2003, 32 p.
10. Panshin GA,
N. Rybakov Radiotherapy nonmalignant diseases. / / Proceedings of the
Radiological Nevsky Forum, St. Petersburg, 2005, p. 386. 11. Panshin GA, N. Rybakov
Radiotherapy nonmalignant diseases. / / Russian Scientific Center of Radiology
and MOH in Russia (Moscow). Address of the document for reference: http://vestnik.rncrr.ru/vestnik/v5/papers/pansh_v5.htm 12. Pashkov BA
Biophysical Foundations of Quantum Medicine. / / Moscow, MIL PKP GIT, 2002, p.
105-111. 13.
Povoroznyuk VV Osteoarthritis: current treatment guidelines / / Health of
Ukraine - 2003 (November). 14.
Podlyashuk EL Head VP Gureev GT Radiotherapy nonmalignant diseases:
opportunities and challenges / / Radiology Practitioner, 2002, ¹ 2, p. 44-46. 15. Trufanov AL Radiotherapy
nonmalignant diseases. / / Ambulatory Surgery, 2007, ¹ 1, p. 15-17. 16.
Khazzes PD Baturkin NI, Deev A. Analgesic and anti-inflammatory effect of
radiotherapy in deforming osteoarthrosis. / / Materials mzhregionalnoy Siberian
scientific conference "The pain and palliative care," 2005, p. 45-53.
17. Abson C.
Radiotherapy for benign diseases. / / British Journal of Radiology, 2000, 73:
121-122. 18.
American Society of Radiologic Technologists (ASRT) Position Statements.
Radiation Therapist Universal Title, 2004. 19. Apisarnthanarax
S., Chougule P. Intravascular brachytherapy: a review of the ent vascular
biology. / / Am. J. Clin. Oncol. 2003. Vol. 26. p. 13-21. 20. Clegg D. O., Reda
D. J., Harris C. et al. Glucosamine, chondroitin sulfate, and the two in
combination for painful knee osteoarthritis. / / N. Engl. J. Med., 2006, 354,
p.795-808. 21. Glatzel M.,
Frohlich D., Basecke S. Analgesic radiotherapy for osteoarthrosis of digital
joints and rhizarthrosis. / / Radiotherapy and Oncology, 2004, 71, p.24. 22. Helmick C. G., Felson D. T.,
Lawrence R. C. et al. Estimates of the prevalence of arthritis and other
rheumatic conditions in the United States. . / / Arthr. Rheum., Part 1, 2008,
58, p. 15-25. 23. Lawrence R.
C., Felson D. T., Helmick C. G. et al. Estimates of the prevalence of arthritis
and other rheumatic conditions in the United States. / / Arthr. and Rheum. Part
II, 2008, 58, p. 26-35. 24.
Micke O., Seegenschmiedt M.H. Consensus guidelines for radiation therapy of
benign diseases: a multicenter approach in Germany. / / International Journal
of Radiation Oncology Biology-Physics, 2002, 52, pp. 496-513. 25. Micke R.,
Micke O., Seegenschmiedt M.H. Radiotherapy in Painful Gonarthrosis - Results of
a National Pattern of Care Study. / / 50-th Annual Meeting, ASTRO, Virtual
Posters, 21-25 september; J. Radiation Oncology, Biology, Physics (ASTRO),
Boston, v. 72. ¹ 1, supplement, 2008, p. 476. 26. Morris
B.J. Factors inhibiting the use of radiation for the treatment of benign
conditions in the United States. / / IMAGE, Guest Viewpoint: To Radiate, or Not
to Radiate? 08.29.05. 27.
MUECKE R., MICKE O., REICHL B., HEYDER R., PROTT FJ. , SEEGENSCHMIEDT
MH, GLATZEL M., SCHNEIDER O., SCHAFER U., KUNDT G. Demographic, clinical and treatment related
predictors for event-freeprobability following low-dose radiotherapy for
painful heel spurs a retrospective multicenter study of 502 patients. / / Acta
Oncologica, 2007, 46: 239-246. 28.
Mucke R, Seegenschmiedt MH, Heyd R, Schäfer U, Prott FJ, Glatzel M, Micke
O. Radiotherapy in painful gonarthrosis. Results of a national patterns-of-care
study. / / Strahlenther Onkol. 2010 Jan; 186 (1) :7-17. Epub 2009 Dec 28. 29. Order S, Donaldson S.
Radiation Therapy of Benign Diseases. Berlin: Springer-Verlag, 1990. 30. Palmer
T., Toombs J.D. Managing joint pain in primary care / / J Am Board Fam Pract.,
2004,17, p 832 - 842. 31. Rödel F.,
Herrmann M., Sauer R. and Hildebrandt G. Radiobiological mechanisms in
inflammatory diseases of low-dose radiation therapy. / / International Journal
of Radiation Biology, 2007, Vol. 83, No. 6, pp. 357-366. 32. Ruppert R., Seegenschmiedt
M.H., Saucr R. Radiotherapy of osteoarthritis. Indication, technique and
clinical results. / / Der Orthopade, 2004, 33, pp. 56-62. 33. Seegenschmiedt M.H, Makoski H. Editor's
corner. Benign News. 2002, 3 (1). 34.
Seegenschmiedt M.H. Thoughts About Benign and Not So Benign Diseases. Available
at: http://www.benign-news.de/Thoughts/thoughts.html. Accessed April 10, 2004. 35.
Seegenschmiedt M.H., Micke O., Willich N. Radiation therapy for nonmalignant
diseases in Germany. Current concepts and future prospective. / /
Strahlentherapie Onkologie, 2004, 180, pp. 718-730. 36.
Seegenschmiedt MH, Makoski HB., Trott KR., And Brady L. Radiotherapy for
Non-Malignant Disorders. / / Springer (Berlin, New York, 2008). 37. Trott K-R and Kamprad F. Estimation
of Cancer Risks from Radiotherapy of Benign Diseases / / Strahlentherapie und
Onkologie, 2007, Volume 182, Number 8, p. 431-436. 38.
Weverling O., Haas R.L.M. The role of kilovoltage X-ray machines in a modern
radiotherapy department. / / Radiotherapy and oncology, ESTRO, 21 annual
meeting, 2002, p. 267.