Medically reviewed on: September 15, 2026

Medical Disclaimer: This information is provided for general educational purposes only and does not provide medical advice. Consult your physician for medical assistance related to your own situation.

Key Points

✓ Spinal cord stimulators mask pain signals. They do not cure the underlying cause.

✓ Complication rates range from 32–43%, and ~45% of patients lose adequate relief within three years. ¹ ²

✓ Boston Scientific recalled 77,674 WaveWriter Alpha devices in July 2024 for software-related therapy interruptions. ³

✓ FDA data logged 107,728 adverse events and 428 deaths tied to SCS devices (2016–2020). ³

✓ Deuk Laser Disc Repair® treats pain at its structural source: same-day discharge, no implanted hardware, no narcotics.

Definition of Boston Scientific Spinal Cord Stimulator

The Boston Scientific spinal cord stimulator is a medical device, which provides electrical impulses directly to the spinal cord. The impulses are supposed to interfere with the pain signals coming from the spine to the brain. Instead of feeling pain, the patient feels tingling sensations (paresthesia) or even gets stimulation at a frequency higher than the point of perception, if talking about more modern devices.

The stimulator includes three major components: the pulse generator, which resembles a pacemaker battery and is implanted under the skin; the leads, which are very thin and insulated wires located in the epidural space; and the hand-held remote that allows adjusting the stimulation parameters.

Boston Scientific currently produces the WaveWriter Alpha technology, which has several waveforms. There are both rechargeable and non-rechargeable versions.

What Does a Spinal Cord Stimulator Actually Do?

The most important thing to realize about a spinal cord stimulator is what it doesn’t do. It doesn’t cure the source of your pain.It is incapable of treating a herniated disc, an annular tear, a compressed nerve, or any form of degenerative disc disease. Its only purpose is that of blocking your pain through the application of electrical currents.

Why is this an important point? Because your source of pain is still there and it will get worse over time.

How a Boston Scientific Spinal Cord Stimulator Works

The implantation of a Boston Scientific spinal cord stimulator is a two-stage process.

Stage 1: The Trial Period

Before a permanent device is placed, patients undergo a trial period lasting approximately five to ten days. During this phase, temporary leads are inserted into the epidural space using a minimally invasive percutaneous approach. The leads are connected to an external pulse generator worn on the body. The trial is considered successful if the patient reports at least 50% pain reduction. However, a 2026 meta-analysis found that approximately 16.2% of patients assessed for SCS eligibility did not proceed past the trial phase, indicating that the therapy failed to provide even short-term benefit for a significant portion of candidates. ¹

Stage 2: Permanent Implantation

Once the test succeeds, the patient will be put under a second operation where the permanent device will be inserted. The pulse generator is placed under the skin, mostly below the lower back or in the buttocks area, while the permanent leads are placed inside the epidural space near the spinal cord.

Where Is the Device Implanted?

The pulse generator will be implanted subcutaneously in the area of the upper buttocks or lower flanks. The leads are inserted into the epidural space and placed posterior to the spinal cord in the level of the vertebra that matches the patient’s pain pattern.

Risks and Complications of Boston Scientific Spinal Cord Stimulators

The clinical literature documents a wide range of complications associated with spinal cord stimulator implantation. These risks apply broadly to SCS devices, including Boston Scientific models, and should be carefully considered by any patient evaluating this therapy.

Complication Rates in the Medical Literature

According to an article that appeared in Current Pain and Headache Reports in 2023, the total percentage for complication related to spinal cord stimulation lies between 31.9% and 43%. ² The most common complication reported is electrode migration, where leads get shifted from their initial position, causing loss of pain coverage or pain in other unwanted regions. Other complications recorded are hematoma formation, infection of the surgical wound, leakage of cerebrospinal fluid, and sometimes even injury to the spinal cord. ²

A 2025 retrospective study published in PMC examined percutaneous tonic spinal cord stimulator outcomes and found that 34.95% of patients required revision surgery, and 27.86% of patients developed unpleasant paresthesia, a complication in which the stimulation itself becomes a source of discomfort rather than relief. ⁴ The same study found that an estimated 30% of SCS devices are eventually explanted (surgically removed), with loss of efficacy being the most common reason, accounting for 26.6% to 43.9% of all explantations. ⁴

Documented Side Effects

Patients with implanted spinal cord stimulators may experience a range of adverse effects, including:

• Lead migration: The most common hardware complication, reported in approximately 13.2% of cases ³, resulting in loss of therapeutic stimulation or painful misdirected impulses
• Infection: Surgical site infections can occur around the leads, generator pocket, or both, sometimes requiring device removal
• Hardware malfunction: Device resets, battery failures, lead fractures, and connection failures can cause sudden loss of therapy or unexpected electrical stimulation
• Unpleasant paresthesia: Uncomfortable tingling, jolting, or shocking sensations, reported in more than one in four patients in one study ⁴
• Pain at the implant site: Persistent discomfort at the generator pocket or lead anchor sites
• Cerebrospinal fluid leak: Spinal headaches resulting from inadvertent dural puncture during lead placement
• Epidural hematoma: A rare but serious complication that can compress the spinal cord and require emergency surgery
• Allergic reaction: Immune response to the implanted materials
• Muscle weakness or neurological deficit: If leads are positioned too close to certain nerve structures

Boston Scientific Device Recalls

The spinal cord stimulators produced by Boston Scientific have faced numerous recalls from the FDA in the past years. Recently, in July 2024, Boston Scientific conducted a Class 2 recall for its WaveWriter Alpha Spinal Cord Stimulation System, covering around 77,674 units of the device across the globe. The issue with the product was found out to be associated with software design that led to resetting of the pulse generator while charging, causing temporary loss of stimulation and discomfort due to stopping and starting of the therapy. ³

Moreover, in September 2026, the FDA recalled the Boston Scientific Infineon CX Lead because the body of the lead was found to be subjected to mechanical stress in the area of anchoring, causing insufficient stimulation and possible lead replacement through surgery. ⁵

This clearly explains the risks involved with reliance on electronic devices for pain control.

FDA Adverse Event Data

However, this list is far from being limited to individual recalls of the devices. Data collected by FDA from the Adverse Events database shows that during the years 2016 to 2020 there have been 107,728 adverse events in relation to spinal cord stimulators, of which 428 led to death of the patients. ³ While each event does not necessarily mean an injury caused by the device itself, the scale of the problem is definitely considerable.

Does a Spinal Cord Stimulator Cure Pain?

No. Spinal cord stimulators do not cure chronic pain. This is perhaps the most important fact for patients to understand before considering implantation.

A spinal cord stimulator manages pain by electrically disrupting pain signals. It does not repair a damaged disc, remove inflammatory tissue, decompress a pinched nerve, or address any other structural pathology in the spine. The moment the device is turned off, removed, or ceases to function, the underlying pain source remains.

A 2026 systematic review and meta-analysis quantified the long-term durability of SCS therapy and found that at three years post-implantation, approximately 44.7% of patients with permanent implants had either undergone explantation or were reporting less than 50% pain relief. ¹ This means that for nearly half of all patients, the device either stopped providing meaningful benefit or was surgically removed within just three years of being placed.

The Parallel to Opioid Pain Management

There is an alarming similarity between the case involving spinal cord stimulators and that of the opioids. The 1980s and 1990s saw the promotion of opioids for chronic pain management. The sales agents persuaded doctors to prescribe these drugs while they got paid for doing so. The patients developed tolerance to the medication, taking more and more of them.

A similar pattern has emerged with spinal cord stimulators. Device manufacturers have invested heavily in marketing SCS devices to pain management physicians, offering financial incentives and practice-building support. Unlike board-certified neurosurgeons who specialize in identifying and treating the structural source of spinal pain, many pain management physicians who implant these devices are not trained to perform the definitive corrective procedures that address the root cause. The result is a growing population of patients with implanted devices that mask symptoms rather than resolve them, and that carry substantial complication and failure rates.

As reporting by major media outlets has documented, the financial relationship between device manufacturers and implanting physicians has driven rapid growth in SCS implantation volumes, often without adequate disclosure of long-term efficacy data to patients.

Living with a Boston Scientific Spinal Cord Stimulator

If you already have a Boston Scientific spinal cord stimulator, the following information addresses common questions about daily life with the device.

Is It MRI Compatible?

Boston Scientific’s present-day SCS units feature MRI conditional labels, which imply that it is possible to perform an MRI scan of the system on the patient under certain conditions specified by the manufacturer. Nevertheless, it is critical for you to let your radiologist and MRI technologist know about your neurostimulation unit prior to conducting any kind of scanning procedure.

Will It Set Off Airport Security?

The device will not typically trigger airport metal detectors. However, Boston Scientific recommends carrying your device identification card when traveling. Patients should request a hand inspection rather than passing through full-body scanners, as the effects of advanced imaging technology on the device have not been fully evaluated.

Can I Bathe, Shower, or Swim?

When the wounds that have been made through surgery heal. It is safe to bathe and shower again. However, note that submerging the implant in water, such as swimming and soaking in a hot tub. Should be discussed with your doctor.

What If It Stops Working?

In the event that your spinal cord stimulator no longer relieves pain or you feel unexpected sensations. You must contact the surgeon who implanted it as soon as possible. The problem could be a depleted battery, a movement of the leads, a mechanical failure of the stimulator, or a software problem. Your Doctor can give you an answer to this question.

Can It Be Removed?

Yes, spinal cord stimulators can be surgically removed (explanted). This is a separate surgical procedure that carries its own risks, including infection, bleeding, and potential nerve injury. As noted above, an estimated 30% of SCS devices are eventually removed. ⁴

Alternatives to the Boston Scientific Spinal Cord Stimulator

For patients with chronic back and neck pain caused by structural spinal pathology such as herniated discs, annular tears, or nerve compression, there are treatments that address the actual source of pain rather than simply masking symptoms.

Deuk Laser Disc Repair® (DLDR)

The Deuk Laser Disc Repair® procedure is the best available minimally invasive laser spine surgery. Created by Dr. Ara Deukmedjian, the renowned board-certified neurosurgeon who is also the founder of the Deuk Spine Institute, the DLDR treatment targets the actual cause of discogenic pain with the help of a highly powerful Holmium YAG laser.

How DLDR Works:

This procedure needs just one incision which will not be more than a quarter of an inch long. The next step involves inserting a hollow tube or cylindrical dilator into the body to make a path to the injured disc without any cuts in muscles or bones. An endoscopic camera enables surgeons to visualize what is going on inside the body during the procedure where the laser beam cuts out the damaged disc tissues. The surgical procedure will take one hour to perform.

Why DLDR Is Different:

• Treats the cause, not just symptoms: Unlike a spinal cord stimulator, DLDR removes the damaged disc material and inflammatory tissue that generate pain signals at their source
• No metal hardware implanted: Nothing is left behind in your body. There is no device to malfunction, no battery to recharge, and no recalls to worry about
• No post-operative narcotics required: Most DLDR patients do not need opioid medications after surgery
• Preserves spinal motion: DLDR does not fuse vertebrae or alter the biomechanics of the spine, preserving natural range of motion and avoiding adjacent segment disease
• Proven track record: Dr. Deukmedjian has reported an average of 99% pain relief for treated pain sources across more than 2,700 procedures, with a complication rate of 0.01%

Deuk Plasma Rhizotomy® (DPR)

Deuk Plasma Rhizotomy® is an out-patient surgery where the plasma energy is used to disrupt the tiny nerves which transfer the pain impulses from the arthritis affected joints. It offers pain relief in cases where the chronic pain is due to the arthritis affected facet joints and not from any damaged disc.

Conservative Treatment Options

Before any surgical intervention, most patients benefit from a thorough trial of conservative management, which may include:

• Physical therapy: Targeted strengthening, flexibility training, and postural correction to reduce mechanical stress on the spine
• Medications: NSAIDs, muscle relaxants, or neuropathic pain medications to manage symptoms during rehabilitation
• Epidural steroid injections: Targeted delivery of anti-inflammatory medication to reduce nerve root inflammation and provide temporary relief
• Lifestyle modifications: Ergonomic adjustments, weight management, and stress reduction techniques

The conservative treatment works best when it’s based on an exact diagnosis. MRI assessment made by an experienced spine specialist is necessary in order to determine the exact structural reason of your problem and prescribe proper treatment.

The Bottom Line

Boston Scientific spinal cord stimulators do not cure chronic back and neck pain. They mask pain signals without treating the underlying structural damage in the spine. Clinical evidence demonstrates that nearly half of all SCS patients experience device removal or inadequate pain relief within three years ¹, the overall complication rate ranges from 32% to 43% ², and FDA data reflects more than 100,000 adverse event reports including hundreds of patient deaths over a five-year period. ³

Our approach to successful pain management begins with making a proper diagnosis and then treating the problem at its source. The laser spine surgery at Deuk Spine Institute can help to alleviate herniated disc, sciatica, bulging disc, spinal stenosis, and other types of conditions that cause constant pain without the use of metal, without the need for a fusion, and without any risk of an electrical device implantation.

If you have a spinal cord stimulator or suffer from one that doesn’t give enough relief, ask for a free MRI evaluation to see if your condition can be successfully treated by a definitive minimally invasive procedure.

FAQ

How effective are spinal cord stimulators for long-term pain relief?

However, the studies regarding the efficacy of SCS for the long term remain contradictory. Although there are some cases where the use of SCS provides a patient with noticeable alleviation of pain symptoms. According to a systematic review and meta-analysis conducted in 2026. In all, 44.7% of the participants have either had their devices removed or pain relief less than 50%. ¹ There is also some data indicating that complications in general have been from 31.9% to 43%, and around 35% of revision procedures. ² ⁴

What is the difference between a spinal cord stimulator and a treatment that cures the pain?

Spinal Cord Stimulator disrupts the pain messages that run between the spine and the brain. It does not fix the problem of the damaged disc. Neither does it reduce the inflammation or decompress the spine. The root cause is still there. With a technique such as the Deuk Laser Disc Repair® the herniation is removed. As a result, pain impulses are stopped at their root.

Has the Boston Scientific spinal cord stimulator been recalled?

Yes. The Boston Scientific recalled its WaveWriter Alpha spinal cord stimulators with 77,674 units under Class 2 recall in July 2024 due to the software defect leading to device reset and interruption of treatment while charging the device. ³ Another recall was made for the Infinion CX Lead in September 2026 due to mechanical stress limiting stimulation. ⁵ Patients are advised to verify whether they possess a defective device from the recall database of the FDA.

Can a spinal cord stimulator be removed if it stops working?

Yes, the removal of the device is possible through a process called explantation. Nonetheless, explantation itself is another surgical process that has inherent dangers such as infections, bleeding, scarring, and possibly nerve damage. Studies show that about 30% of all spinal cord stimulators undergo the explantation process mostly because of lack of effectiveness. ⁴

Who should I consult before getting a spinal cord stimulator?

Before undergoing a procedure involving the spinal cord stimulator, be sure to get a second opinion from an independent board-certified neurosurgeon or spine surgeon, one who will go through your MRI and medical history, determine the specific structure that is causing your pain, and outline all the different treatment options open to you, some of which include minimally invasive treatments aimed at correcting the underlying problem. A thorough second opinion may be what you need to make an informed decision. Deuk Spine Institute offers a free MRI evaluation service for you to start with.

Sources

Reviewed on September 10th, 2026

Disclaimer: The contents provided in this article are for informational purposes only and do not constitute medical advice. Consult a qualified healthcare professional for diagnosis and treatment specific to your condition.

Key Points

✓ RFA treats facet joint pain, not herniated discs. These are different conditions with different pain sources.¹

✓ Relief is temporary. Nerves regenerate in 6–24 months, and pain returns.²

✓ RFA can’t reach disc inflammation or decompress pinched nerves.³

✓ Most back pain isn’t from facet joints. Only 15–45% of chronic cases are facet-related.⁴

✓ Herniated disc pain is driven by inflammatory mediators within the annulus fibrosus the RFA cannot access.⁵

✓ Deuk Laser Disc Repair® permanently removes damaged disc material. No fusion, no hardware, 0.01% complication rate.

Radiofrequency Ablation Does NOT Treat Herniated Disc Pain

If you’ve been told that radiofrequency ablation can fix your herniated disc, you’ve been given incomplete and potentially harmful information. RFA is one of the most commonly misapplied procedures in spine care today. While it has a legitimate role in managing facet joint pain, it does absolutely nothing to address the inflammation, nerve compression, and structural damage caused by a herniated disc.

At Deuk Spine Institute, we see this happen to our patients far too often. Patients come to us after months; sometimes years of repeated RFA procedures, still in pain, because no one explained that RFA was never designed for their condition in the first place. That’s why we’re here to set the record straight  and give you a real solution.

What Is Radiofrequency Ablation, and What Does It Actually Treat?

Radiofrequency ablation is a pain management procedure. Not a corrective treatment. It uses heat generated by radio waves to create a lesion on specific nerves, temporarily preventing them from transmitting pain signals to the brain. According to the Cleveland Clinic, RFA targets the medial branch nerves that supply sensation to the facet joints, or the lateral branch nerves that serve the sacroiliac joints.¹

The key word here is temporarily. As UCLA Health explains, radiofrequency ablation provides temporary pain relief lasting approximately four to six months by using heat to block nerves in the facet joints.⁶ The Mayo Clinic Health System notes that while relief may last nine to twelve months and sometimes longer, pain typically returns once the nerves regenerate and the procedure must be repeated.²

RFA can be a reasonable option for patients with confirmed facet joint syndrome or sacroiliac joint dysfunction. But that’s the extent of its application. It does not treat disc herniations, degenerative disc disease, or any condition where the pain source is inside the disc itself.

Conditions RFA Can Appropriately Treat

RFA has a clinically validated role in two specific conditions:

• Facet Joint Syndrome — inflammation or arthritis in the small stabilizing joints of the spine
• Sacroiliac (SI) Joint Dysfunction — pain at the junction where the pelvis meets the spine

For either condition, a diagnostic medial branch block must first confirm that the facet or SI joint nerves are the actual pain source before RFA is offered.¹

Who Should NOT Receive RFA

If your pain stems from any of the following, RFA is not an appropriate treatment:

• Herniated disc
• Bulging disc
• Degenerative disc disease
• Nerve root compression (radiculopathy)

RFA cannot access the interior of a spinal disc, cannot reduce inflammation within the annulus fibrosus, and cannot decompress a pinched nerve root. Yet many patients with these conditions are still being sent for RFA procedures.

Understanding Herniated Disc Pain: Why RFA Misses the Mark

To understand why RFA fails herniated disc patients, you need to understand what’s actually causing the pain. When there is a protrusion of the nucleus pulposus out through the damaged annulus fibrosus, it is called a herniated disc. The Barrow Neurological Institute states that this protrusion not only puts pressure on the spinal nerves, but it also secretes chemicals that cause inflammation.⁷

Research published in the NIH National Library of Medicine confirms that the high expression of inflammatory mediators associated with annulus fibrosus tears is what causes low back pain in disc herniation. Not the facet joints.⁵ A separate study found that inflammatory mediators within the disc are the primary drivers of discogenic pain, involving complex pathways including nerve infiltration deep into the degenerated disc tissue.⁸

Moreover, according to the NIH StatPearls article on disc herniation, herniation happens as a result of bulging of the nucleus pulposus beyond the annulus fibrosus. This happens mainly at weak posterolateral points and leads to end plate alterations due to inflammation and edema, which results in low back pain. Approximately 95% of herniations occur in the lumbar spine.³

RFA cannot reach any of these structures. The actual sources of herniated disc pain include:

• Mechanical nerve compression — the protruding disc fragment presses directly on spinal nerve roots
• Chemical inflammation — the nucleus pulposus leaks inflammatory mediators that irritate surrounding tissue
• Annulus fibrosus tears — micro-fissures in the outer disc wall trigger localized inflammatory pain⁵
• Neoinnervation — new sensory nerves grow into the degenerated disc, amplifying pain signals⁸

RFA addresses none of these. It burns a nerve outside the disc. The disc itself the actual source of pain remains untreated.

Symptoms of Herniated Disc Pain

Symptoms depend on the disc’s location:

Lumbar (lower back) herniation:

• Localized low back pain
• Radiating pain down one or both legs (sciatica)
• Numbness or tingling in the legs and feet
• Muscle weakness affecting walking or standing

Cervical (neck) herniation:

• Neck pain and stiffness
• Radiating pain into the shoulders, arms, or hands
• Numbness or tingling in the fingers
• Grip weakness or loss of fine motor control

These symptoms arise from nerve root compression and chemical inflammation. two mechanisms that have nothing to do with facet joints and therefore cannot be addressed by RFA.³ ⁷

The RFA Procedure: What It Does and What It Doesn’t Do

Here’s what happens during a typical RFA procedure:

1. Positioning — the patient lies face down (lumbar) or on their back (cervical)
2. Local anesthesia — the treatment area is numbed
3. Needle placement — a thin radiofrequency needle is inserted near the targeted medial branch nerve under X-ray (fluoroscopic) guidance
4. Nerve verification — a mild electrical stimulation test confirms the correct nerve is being targeted without affecting motor function
5. Ablation — the needle tip heats to approximately 80°C, creating a small lesion on the nerve to interrupt its pain signals¹

According to Spine-Health, relief can last six months to two years, though some patients experience no relief at all.⁹ The procedure typically takes 30 to 60 minutes depending on the number of nerve levels treated.

Recovery After RFA

Most patients can resume light activity within a day or two. Mild soreness or swelling at the injection site is common. Pain relief generally begins within two to four weeks.²

However, results are inherently temporary. As nerves regenerate; which they inevitably do pain returns. Many patients find themselves on a treadmill of repeated procedures, each providing diminishing returns, while the underlying condition continues to worsen.

Risks and Limitations of RFA

While RFA is considered minimally invasive, it carries real risks:

• Temporary increased pain or swelling at the treatment site
• Infection at the needle insertion point
• Nerve damage beyond the targeted area (rare)
• Misplaced needle damaging surrounding structures
• Incomplete pain relief or no relief at all⁹

The most significant limitation, however, is not a complication. It’s the fundamental design of the procedure. RFA is a nerve-blocking technique, not a cure. It masks a signal without addressing the source.

Why Spinal Fusion Is Not the Answer Either

Many patients who fail RFA are then directed toward spinal fusion. A major surgery that involves permanently joining two or more vertebrae using metal hardware, rods, screws, and bone grafts. Fusion eliminates motion at the treated segment, which can provide stability but introduces a well-documented cascade of new problems.

According to a review published in Spine journal, radiographic adjacent segment degeneration occurs in 36% to 100% of patients after lumbar fusion, with symptomatic adjacent segment disease developing in 5.2% to 18.5% of patients during follow-up periods.¹⁰ A separate analysis found the risk of adjacent segment disease runs 2% to 14% per year in the lumbar spine, and reoperation rates reach 22% within 10 years after cervical fusion.¹¹

Beyond adjacent segment disease, fusion carries additional drawbacks:

• Permanent loss of spinal motion at the treated level
• Lengthy recovery periods of six months or more
• Risk of hardware failure, loosening, or breakage
• Surgical risks including infection and significant blood loss
• Potential need for additional surgeries as adjacent segments break down under compensatory stress
• Chronic muscle damage from surgical dissection of the paraspinal muscles¹⁰ ¹¹

A Better Alternative: Deuk Laser Disc Repair®

Deuk Laser Disc Repair® (DLDR) is a non-fusion, minimally invasive procedure developed by Dr. Ara Deukmedjian that treats the root cause of herniated disc pain not just its symptoms. Unlike RFA, which burns a nerve outside the disc, and unlike fusion, which eliminates spinal motion, DLDR uses a precision laser to remove only the damaged, inflamed disc material that is compressing nerves and causing pain.

The method is used to treat any disc herniation anywhere in the spine, whether in the cervical region, thoracic, or lumbar region, such as L3-L4, L4-L5, L5-S1, or C4-C5 and C5-C6. With more than 2,800 procedures performed and a 0.01% complication rate, DLDR cures you permanently by addressing the root cause of your pain.

For Facet Joint Pain: Deuk Plasma Rhizotomy®

For patients whose pain genuinely originates from the facet joints, Deuk Plasma Rhizotomy® (DPR) offers a permanent alternative to the temporary relief provided by conventional RFA. While traditional RFA creates a heat lesion that nerves eventually heal around, DPR uses advanced plasma technology to provide lasting facet joint pain relief without the cycle of repeated procedures.

What You Can Do Right Now

If you’ve been recommended radiofrequency ablation or you’ve already had it and the pain keeps coming back. You are not out of options. At Deuk Spine Institute, we’ve built a system to give patients real answers and real relief:

Free MRI Review by a board-certified neurosurgeon. Not a technician, not a PA, but a surgeon who specializes in minimally invasive spine care

Accurate diagnosis we identify whether your pain is coming from a disc, a facet joint, or another source, so you receive the right treatment for the right condition

Minimally invasive laser spine surgery no hospital stays, no fusions, no unnecessary pain

We’ve helped thousands of patients who were told they had no options. Patients who were cycling through injections and ablations with no lasting relief.  Finally get the diagnosis and permanent care you deserve.

Frequently Asked Questions

Does radiofrequency ablation work for herniated discs?

No. RFA targets the medial branch nerves that supply the facet joints.¹ It cannot access the interior of a spinal disc, reduce disc inflammation, or decompress a pinched nerve root.³ If your pain is caused by a herniated or bulging disc, RFA will not treat the source of your pain. It is only appropriate for confirmed facet joint or sacroiliac joint pain.

How long does radiofrequency ablation pain relief last?

The Mayo Clinic Health System says that relief normally lasts between nine and twelve months but some people get pain relief for several years.² However, since nerves regenerate, the pain comes back and the procedure needs to be done again. Some patients experience no relief at all.⁹

What percentage of back pain is caused by facet joints?

It is established in controlled diagnostic studies that facet joints contribute to 15%-45% of chronic low back pain conditions.⁴ Hence, the remaining proportion of chronic back pain patients 55%-85%. Suffer pain from other anatomical sources, usually herniated and degenerative discs.

What is the difference between RFA and Deuk Laser Disc Repair?

RFA burns a nerve to temporarily block pain signals from the facet joints.¹ It does not fix anything it masks a symptom. Deuk Laser Disc Repair® removes the damaged disc material that is causing nerve compression and inflammation, providing permanent relief. DLDR preserves the spine’s natural structure with no hardware, no fusion, and no bone removal.

Is spinal fusion the only surgical option for herniated discs?

No. Spinal fusion is a major surgery that permanently eliminates motion at the treated spinal segment and carries a significant risk of adjacent segment disease. Reported in up to 100% of patients radiographically and 5.2% to 18.5% symptomatically.¹⁰ Deuk Laser Disc Repair® is a minimally invasive, non-fusion alternative with a 0.01% complication rate and rapid recovery.

Can radiofrequency ablation make my condition worse?

RFA, by itself, is not likely to aggravate a herniated disc. The true risk comes when the diagnosis is wrong – receiving RFA for pain when the source of the pain is a herniated disc will continue to cause further deterioration of the condition while providing you only temporary, or no, pain relief.

How do I know if my pain is from a facet joint or a herniated disc?

An MRI is the gold standard for identifying disc herniations.³ For facet joint pain, doctors use a diagnostic medial branch block. A short-acting numbing injection near the facet joint nerve. If the block provides temporary relief, the facet joint is confirmed as a pain source.¹ At Deuk Spine Institute, our free MRI review can help identify your exact pain source so you receive the right treatment.

Sources

Medically reviewed on September 2, 2026

Disclaimer: The contents provided in this article are for learning purposes only. It is always recommended to speak to a doctor about your personal health condition.

Key Points

✓ Abbott’s Proclaim XR spinal cord stimulator does not fix the structural cause of chronic pain. It masks pain signals with low-level electrical currents sent to the spinal cord.¹ ²

✓ The long-term success rate of spinal cord stimulators sits between 47% and 74%, and outcomes decline the longer the device is implanted.³

✓ Documented side effects include cerebrospinal fluid leaks, epidural hemorrhage, spinal cord compression, infection, device migration, and in rare cases paralysis.¹ ⁴

✓ Mechanical failures, battery depletion, and lead displacement frequently require additional surgeries to reposition or replace the device.⁴ ⁵

✓ Electromagnetic interference from MRIs, defibrillators, and other medical equipment can damage the implant and cause severe burns or serious injury.¹

✓ Deuk Laser Disc Repair® treats the structural source of pain. The damaged disc itself with a 95% success rate and zero complications across more than 1,300 patients over 15 years.⁶

The Device Millions of Chronic Pain Patients Are Offered and Why It Never Actually Fixes Anything

Picture this. You have been living with chronic back pain or neck pain for years. You have tried physical therapy. You have been through rounds of epidural steroid injections. You have taken more medication than you want to think about. Finally, your pain management doctor recommends a spinal cord stimulator. He tells you a small device will be implanted near your spine, it will send electrical pulses to interrupt your pain signals, and the pain will become manageable.

So you go through the trial period. You get the permanent implant. And maybe, for a while, it seems to help. The electrical buzzing or tingling replaces some of the pain. But months later, the coverage shifts. The leads migrate. The battery drains. You are back in the office, talking about a revision surgery. Or worse, the device never worked well in the first place.

Sound familiar?

If you are stuck in this cycle, you are not alone. And the reason your spinal cord stimulator is not delivering lasting relief is not a mystery. It is a fundamental design limitation baked into the technology itself.

A spinal cord stimulator does not treat the structural problem causing your pain.¹ ² It does not repair a herniated disc. It does not decompress a pinched nerve. It does not close an annular tear. It places a battery-powered device in your body that sends electrical signals to your spinal cord in an attempt to scramble the pain message before it reaches your brain.² That is not a fix. It is a workaround. And workarounds, by definition, have an expiration date.

What Is the Abbott Spinal Cord Stimulator, Exactly?

Abbott’s Proclaim XR is a recharge-free neurostimulation system approved by the FDA for people living with chronic pain.¹ The device delivers low-dose electrical currents to the spinal cord through implanted leads. Abbott markets the system’s BurstDR stimulation technology as an advancement over older stimulation patterns, and the battery is rated to last up to 10 years at low-dose settings without recharging.¹

The company also offers dorsal root ganglion (DRG) stimulation, which targets a specific cluster of nerve cell bodies near the spine for more localized pain conditions like complex regional pain syndrome (CRPS).¹

The system pairs with Bluetooth wireless technology and Apple mobile devices, giving patients a handheld controller to adjust stimulation settings within prescribed limits.¹

Here is what the marketing does not emphasize: none of this changes the anatomy that is generating the pain in the first place. The herniated disc is still herniated. The compressed nerve is still compressed. The degenerative changes in the spine are still progressing. The device simply sits between the pain source and your conscious perception of it, hoping to intercept enough of the signal to make daily life tolerable.

How Does It Actually Work?

The procedure involves two phases.²

Phase one is the trial. A physician places temporary leads near the spinal cord through a needle inserted into the epidural space. These leads connect to an external generator worn on a belt. The trial typically lasts five to seven days. If the patient reports meaningful pain reduction usually defined as 50% or greater. The physician recommends permanent implantation.²

Phase two is the permanent implant surgery. Under sedation or general anesthesia, the surgeon places permanent leads in the epidural space and tunnels a wire under the skin to a small pulse generator implanted in the abdomen or upper buttock area. The entire system sits inside your body. From that point forward, electrical pulses are delivered continuously or on a programmed schedule to mask pain signals traveling up the spinal cord to the brain.²

The theory is straightforward: if you can override the pain signal with an electrical one, the brain perceives less pain. This is based on the gate control theory of pain, first proposed in 1965.² It is a real neurological phenomenon. But there is a critical difference between disrupting a pain signal and eliminating the condition that produces it.

What Is the Success Rate and What Does “Success” Actually Mean?

This is where the conversation gets uncomfortable.

The long-term success rate of spinal cord stimulators is reported between 47% and 74%.³ That range is wide enough to be concerning on its own. But the more important question is how “success” is being defined. In most SCS studies, success means a 50% reduction in pain scores on a self-reported scale.³ Not pain elimination. Not return to full function. Not resolution of the underlying spinal condition. Just cutting the pain roughly in half, according to the patient’s own subjective assessment.

And even that level of relief degrades over time. Research shows that the effectiveness of spinal cord stimulation is inversely related to how long a patient has lived with chronic pain before implantation.³ The longer you wait, the worse the outcomes. Which raises an obvious question: if the device does not treat the underlying problem, why would earlier implantation produce better results? The answer is that it likely catches patients whose conditions have not yet progressed as far. Not because the device itself is more effective.

Additionally, studies have documented that a significant number of patients who experience initial relief during the trial period do not maintain that relief after permanent implantation.⁵ Lead migration, scar tissue formation around the electrodes, and neurological adaptation to the stimulation pattern all contribute to diminishing returns.⁴ ⁵

The Side Effects and Risks Your Pain Management Doctor May Understate

Every surgical procedure carries risk. But with spinal cord stimulators, the risks are not limited to the implantation surgery. They extend throughout the entire lifespan of the device, which is now permanently inside your body.

Documented side effects and complications include:

Cerebrospinal fluid (CSF) leaks — the placement of leads into the epidural space can puncture the dural membrane, causing spinal fluid to leak. This results in severe positional headaches that can last for days or weeks.⁴

Epidural hemorrhage — bleeding in the epidural space during or after lead placement can compress the spinal cord. In severe cases, this constitutes a surgical emergency.⁴

Infection — any implanted device carries infection risk. Infections associated with SCS systems may require complete removal of the device, additional surgery, and extended antibiotic treatment.⁴

Lead migration — the thin wires that deliver stimulation can shift position after implantation, changing or eliminating the pain relief pattern and requiring surgical revision.⁴ ⁵

Spinal cord compression or nerve damage — in rare cases, improperly placed or migrated leads can compress the spinal cord itself, potentially causing weakness, numbness, or paralysis.⁴

Electromagnetic interference — MRIs, cardiac defibrillators, theft detection systems, and other sources of electromagnetic energy can interfere with the device. In some cases, this can cause unintended stimulation, device damage, severe burns at the lead site, or other serious injury.¹

Battery failure — the generator can malfunction, leak, or deplete earlier than expected, necessitating replacement surgery.⁴

Skin erosion — the implanted generator or lead connectors can erode through the skin over time, particularly in thin patients, requiring removal and reimplantation.⁵

Abbott’s own safety disclosures note that the device is contraindicated for patients who are pregnant, under the age of 18, unable to operate the system, or poor surgical candidates.¹

Masking Versus Fixing: Why the Distinction Between Pain Management and Pain Elimination Is Everything

This is the core issue, and it is the one that most pain management discussions gloss over entirely.

A spinal cord stimulator is a pain management device.² It manages. It does not resolve the structural source of your chronic pain. Whether that is a herniated disc, a bulging disc, spinal stenosis, or a damaged annulus. It remains untreated for as long as the device is in your body. The disc does not heal. The nerve compression does not resolve. The degeneration continues to progress.

And here is the part that does not show up in the brochure: the longer the underlying condition goes untreated, the harder it becomes to treat successfully later. Pain pathways become centralized. The nervous system becomes sensitized. What started as a localized structural problem in the spine becomes a systemic pain processing disorder that is far more difficult to reverse.

This is why masking pain for years with a spinal cord stimulator. Instead of addressing the disc or nerve problem directly. Can actually make your long-term prognosis worse, not better.

The Real Comparison: Spinal Cord Stimulation vs. Spinal Fusion vs. Deuk Laser Disc Repair®

When you are evaluating treatment options for chronic back or neck pain caused by disc pathology, three categories dominate the conversation. Understanding how they differ is critical:

Spinal cord stimulation implants a battery-powered device that masks pain signals. It does not treat the disc, the nerve, or the structural problem. Success rates range from 47–74%, with diminishing returns over time. Revision surgeries are common. The device must eventually be replaced or removed.¹ ² ³

Spinal fusion permanently locks two or more vertebrae together with screws, rods, and bone graft material. It eliminates all motion at the treated segment, accelerates degeneration at adjacent levels (known as adjacent segment disease), and requires months of recovery. It is an irreversible structural alteration to your spine.

Deuk Laser Disc Repair® (DLDR) uses endoscopic laser technology to enter the damaged disc through an incision smaller than a quarter inch. The Holmium YAG laser removes only the damaged, inflammatory disc material that is causing pain with millimeter precision under direct endoscopic visualization. No bones are cut. No muscles are severed. No hardware is implanted. The spine’s natural structure and full range of motion are preserved. The procedure takes about one hour, is performed under sedation in an outpatient surgery center, and patients go home the same day.⁶

In over 20 years and thousands of patients, Deuk Laser Disc Repair® has maintained a 95% success rate with zero complications.⁶

The distinction matters. If your chronic pain originates from a damaged disc, the most logical treatment is one that repairs the disc. Not one that tries to make your brain ignore it.

How Deuk Laser Disc Repair® Works. Step by Step

The procedure begins with a very small incision, less than a quarter inch long. A cylindrical rod called a dilator is inserted through the opening to gently spread the surrounding muscle without cutting it, creating a narrow passage to the spine.⁶

The dilator tip is advanced into the symptomatic disc through the annular tear where the herniation originates. A thin tube called a retractor slides over the dilator and is positioned into the affected disc. The entire surgery takes place through this narrow tube.⁶

An endoscopic camera is then inserted into the retractor, giving the surgeon a direct, high-definition view of the interior of the disc. Unlike traditional spinal fusions, microdiscectomies, or artificial disc replacements, this approach ensures that bones, ligaments, and surrounding healthy tissues are not damaged.⁶

The Holmium YAG laser is then directed with millimeter accuracy by way of endoscopy to excise only the painful, inflamed portions of the disc. Nothing else is affected. Cauterization is achieved during the process to reduce bleeding.⁶

The entire process takes approximately one hour. The incision is closed with a single stitch and a bandage. Patients return home the same day and resume normal activities during a rapid recovery period. No opioids or powerful narcotic painkillers are required after surgery.⁶

What This Means If You Are Living with a Spinal Cord Stimulator or Considering One

If you are currently living with a spinal cord stimulator and your pain relief has plateaued or disappeared, the device is not the problem. The untreated structural condition in your spine is the problem. The stimulator was never designed to fix it.

If you are considering a spinal cord stimulator because your pain management doctor recommended it after injections and physical therapy failed. Ask one question first: has anyone looked at the actual structural source of your pain? Is it a damaged disc, a compressed nerve root, an annular tear? Can it be repaired directly?

If the answer is no, you may be about to implant a permanent device in your body to manage a problem that could have been treated at its source.

Deuk Laser Disc Repair® is the most advanced laser spine surgery in the world, developed and performed exclusively at Deuk Spine Institute. It is designed for patients whose chronic back and neck pain originates from disc pathology: including bulging discs, herniated discs, sciatica, and spinal stenosis.

A free MRI review is the first step toward understanding whether your chronic pain can be treated at its source rather than masked by a device.

FAQs

Does the Abbott spinal cord stimulator cure chronic back or neck pain?

No. Spinal cord stimulators are pain management devices, not curative treatments.¹ ² They send electrical pulses to the spinal cord to interfere with pain signals before they reach the brain. The structural condition causing the pain. Whether a herniated disc, compressed nerve, or degenerative disc disease remains untreated. This is why many patients experience diminishing relief over time and require revision surgeries or device replacement.⁴ ⁵

What is the actual success rate of spinal cord stimulators?

Published long-term success rates range from 47% to 74%.³ However, “success” in most studies is defined as a 50% reduction in self-reported pain. Not pain elimination or return to full function. Effectiveness tends to decrease over time due to factors like lead migration, scar tissue formation, and neurological adaptation to the stimulation pattern.³ ⁵

What are the most serious risks of the Abbott spinal cord stimulator?

Some of these risks include cerebral spinal fluid leak, epidural hemorrhage, infections that would require the implant to be removed, lead migration that would result in the need for corrective surgery, spinal cord compression, and in some cases, paralysis.⁴ Risks associated with electromagnetic interference include destruction of the implanted device that may lead to very serious burns.¹ The battery of the device may malfunction or deplete early on.⁴

Why does my spinal cord stimulator stop working over time?

Several factors contribute. The implanted leads can physically shift position, changing or losing the stimulation coverage area. Scar tissue can form around the electrode tips, insulating them from the spinal cord and reducing effectiveness. The nervous system can also adapt to a consistent stimulation pattern, requiring higher energy levels or different programming to achieve the same effect.⁴ ⁵ Most fundamentally, the underlying spinal condition continues to progress while the stimulator only manages symptoms.

What is Deuk Laser Disc Repair® and how is it different?

Deuk Laser Disc Repair® (DLDR) is a minimally invasive endoscopic laser spine surgery that directly treats the damaged disc tissue causing chronic pain. Unlike a spinal cord stimulator, which masks pain signals, DLDR uses a Holmium YAG laser guided by an endoscopic camera to remove only the inflammatory disc material with millimeter precision.⁶ No bones are cut, no muscles are severed, no hardware is implanted, and the spine’s full range of motion is preserved. In over 15 years and more than 1,300 patients, the procedure has maintained a 95% success rate with zero complications.⁶

Can I get Deuk Laser Disc Repair® if I already have a spinal cord stimulator implanted?

The best way to determine your candidacy is through a free MRI review with the team at Deuk Spine Institute. Your imaging will be evaluated to determine whether the structural source of your disc pathology is treatable with DLDR, and how your existing implant factors into the treatment plan.

Who is not a candidate for the Abbott spinal cord stimulator?

According to Abbott’s own safety disclosures, the device is contraindicated for patients who are pregnant, under 18 years of age, unable to operate the neurostimulation system, or who are poor surgical candidates.¹ Patients who live or work near strong electromagnetic fields should also exercise extreme caution, as interference can damage the device or cause unintended stimulation.¹

Is a spinal cord stimulator better than spinal fusion?

None of these approaches treats the disc itself. Spinal fusion fuses the vertebrae, stops their movement, and causes accelerated degeneration in the vertebrae adjacent to the affected ones. Spinal cord stimulation uses surgery to implant a device to block the transmission of pain without correcting the anatomy.¹ ² Each of these surgeries poses a considerable risk to the patient. The third option is the treatment of the degenerated disc itself with Deuk Laser Disc Repair®.

Sources

But the answer isn’t the same for everyone. Pain management genuinely works well when the source is inflammatory, temporary, or hasn’t been pinpointed yet. Repeat injections that stop lasting as long, or medications that need higher doses to do anything, are usually a sign the source was never confirmed, not that nothing more can be done. Most patients are never told that an MRI by itself cannot identify which structure is actually generating the pain.

If you’ve tried injections or medication and you’re still hurting, the more useful question is whether your actual pain generator has ever been confirmed. The Deuk Spine Exam® correlates your MRI with a physical exam and pain history to find out whether a treatable disc source exists, and a free MRI review is a low-cost way to check before trying another round of the same approach.

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Why Doesn’t Pain Management End Chronic Pain

Pain management interrupts pain signals and reduces inflammation. It does not repair torn or degenerated tissue causing them. If a disc is the actual generator, the relief pain management provides is temporary, because the damaged tissue underneath was never touched.

Shots and pills quiet the pain, but if the disc underneath is still torn, the quiet doesn’t last. Once an injected steroid wears off or a nerve regains its ability to signal, the pain tends to return right where it started, sometimes worse than before.

What Is Pain Management Actually Designed To Treat

Interventional pain management targets pain signaling itself. Epidural injections, facet block injections, radiofrequency ablation, and nerve blocks all work on the nervous system’s response to pain, not on the tissue causing it.

Pain management is a strong fit in a few situations:

• An unclear source while diagnostic workup is still in progress
• A purely inflammatory flare with no structural damage behind it
• Bridging pain control before or after a separate procedure

What it isn’t designed to do is repair torn disc tissue or close a structural defect. When the pain keeps returning after each round of treatment, that’s often the clue that the source itself was never addressed.

Why Do Injections and Medications Lose Their Effect Over Time

Acute inflammation, the kind from a minor strain, typically heals on its own within about two weeks. Chronic inflammation from an unresolved disc injury doesn’t follow that pattern. It persists, and over time it can drive neoinnervation, meaning pain-carrying nerve fibers grow into the damaged tissue itself.

Each injection calms that signal for a while. But if the disc tissue keeps generating the same inflammatory response, the nerve fibers regrow, the signal returns, and many patients find they need injections more often or at higher doses just to get the same relief.

This is different from the conservative treatment failure point most doctors use, typically 6 to 12 weeks of non-surgical care without improvement. A disc that keeps re-inflaming past that window is telling you something about the source, not about your pain tolerance.

How Do You Know If an Untreated Disc Is the Real Source

MRI alone cannot diagnose a pain source. It has to be correlated with a physical exam and your actual symptom history. A review of discogenic low back pain published in the National Institutes of Health’s PMC database notes that diagnosing an internally disrupted disc as the primary pain source is genuinely difficult to differentiate from other causes of mechanical or radicular pain, which is exactly why imaging by itself isn’t enough. Learn more about why MRI alone is never enough to confirm a diagnosis.

A few patterns suggest an untreated disc may be the actual generator:

• Pain tied to a specific movement or position, like bending or sitting, rather than pain that’s constant regardless of activity
• A history that matches a known injury or gradual onset, not a sudden, unrelated flare
• MRI findings in the posterior annular tear region that line up with where the pain is felt
• Leg or arm symptoms alongside the back or neck pain, which can point to nerve involvement from the same disc

None of these confirm a diagnosis on their own. That correlation work is exactly what a proper diagnostic exam is for.

What Does Treating the Source Instead of the Symptom Look Like

Deuk Laser Disc Repair® (DLDR®) removes the inflammatory tissue and performs debridement of the posterior annular tear itself, through a 7mm lumbar or 4mm cervical incision, same-day outpatient. The tear then heals naturally over 9 to 12 months rather than being sealed or patched. It’s one of several minimally invasive treatment options built around treating the confirmed source directly.

In Dr. Deukmedjian’s clinical experience across over 2,700 DLDR® procedures spanning 30+ years, patients report an average of 99% pain relief for treated pain sources, with a 0.01% complication rate. Results apply when the diagnosed pain source matches the treated pathology, which is why confirming the source first matters as much as the procedure itself.

This is a structural approach, not a substitute for pain management in every case. It’s specifically for patients whose pain traces back to a disc that pain management alone was never going to fix.

When Is It Time to Look Past Pain Management

A few signals are worth paying attention to:

• Injections that used to last months now wear off in weeks
• Medication doses have crept up without a matching improvement in pain
• Pain has continued past the typical 6 to 12 week conservative treatment window
• Imaging shows a finding that lines up with where and how the pain shows up

None of these mean pain management failed you. They usually mean it’s time to find out whether there’s an identifiable, treatable source underneath it.

Bottom Line

Pain management can quiet a pain signal, but it can’t repair a torn or degenerated disc. If relief keeps fading faster each time, the more productive step isn’t another round of the same treatment, it’s confirming whether a treatable source actually exists. The Deuk Spine Exam® and a free MRI review are built to answer exactly that question.

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Frequently Asked Questions

Does pain management help chronic back pain?

Pain management can help chronic back pain when the source is inflammatory, unclear, or being managed while a diagnosis is in progress. It’s less effective long term when a structural problem like a torn disc was never identified and treated directly.

Why does pain management stop working over time?

Pain management stops working over time when the underlying tissue damage, often a disc injury, keeps generating the same inflammatory signal. Nerve fibers can regrow into the damaged tissue, which is why injections that once lasted months may start wearing off in weeks.

Can an MRI alone diagnose the source of chronic pain?

An MRI alone cannot diagnose the source of chronic pain, because disc abnormalities show up on imaging in many pain-free people too. A reliable diagnosis correlates the MRI with a physical exam and a detailed pain history.

What is the difference between managing pain and treating its source?

The difference between managing pain and treating its source is that management interrupts pain signals temporarily, while treating the source addresses the actual damaged tissue, such as a torn disc, that’s generating those signals.

How long does it take for a treated disc to heal?

A treated disc typically heals over 9 to 12 months after the inflammatory tissue is removed and the tear is debrided. This is a natural healing process, not an immediate repair.

Is Deuk Laser Disc Repair® right after failed injections?

Deuk Laser Disc Repair® may be an option after failed injections if a Deuk Spine Exam® confirms a treatable disc source. It isn’t automatically the next step for everyone, since the right treatment depends on what’s actually generating the pain.

This information is provided for general educational purposes and does not constitute medical advice. Individual results vary, and outcomes described apply to treated pain sources following an accurate diagnosis. Consult with a qualified physician to determine the right approach for your specific condition.

Medically reviewed on August 20, 2026

Disclaimer: The contents provided in this article are for learning purposes only. It is always recommended to speak to a doctor about your personal health condition.

Key Points

✓ A facet block injection delivers a local anesthetic and corticosteroid directly into or near a facet joint to relieve pain and confirm the joint as the source of symptoms.¹

✓ Facet joints account for an estimated 15–45% of chronic low back pain and 27–67% of chronic neck pain cases, making them one of the most common spinal pain generators.^{2 3}

✓ Facet block injections serve a dual purpose: they are both a diagnostic tool that identifies which specific joint is causing pain and a therapeutic treatment that reduces inflammation.^{1 4}

✓ Pain relief from a single facet block injection typically lasts weeks to months, with some patients experiencing relief for 6–12 months when the injection is accurately placed.^{4 5}

✓ Fluoroscopic guidance significantly improves injection accuracy and outcomes. Improperly placed injections are a leading reason patients fail to respond to treatment.^{5 6}

✓ Deuk Plasma Rhizotomy® offers a permanent, motion-preserving alternative for patients whose facet pain returns after injections wear off.

What Is a Facet Block Injection?

In a facet block injection procedure, the physician introduces the medication mixture containing anesthetics During the process of facet block injection, the anesthesiologist injects the solution comprising of the mixture of anesthetic drugs such as lidocaine or bupivacaine and a corticosteroid right into or near the facet joint within the spine.¹ Here, the anesthetic will be responsible for instant pain reduction, whereas the steroid will assist in reducing the inflammation around the joint over several days to weeks.

The facet joints, or zygapophyseal joints as they should be known, are small joints present at the posterior aspect of the spine that link each vertebral body with the ones above and below it. ⁴ These joints allow the movement of the spine and prevent it from twisting. Since facet joints receive many nerves from the medial branch nerves, they have the capability of generating pain when irritated due to arthritis, inflammation, or injury. ^{2 3}

What makes the facet block injection unique among spinal interventions is that it serves a dual purpose: it is both a diagnostic tool and a therapeutic treatment. ¹ When a facet block eliminates or dramatically reduces a patient’s pain, it confirms that the targeted facet joint is the source of the problem. Information that imaging alone cannot reliably provide. At the same time, the anti-inflammatory medication within the injection reduces swelling and irritation within the joint, providing symptomatic relief that can last weeks to months. ⁴ 

Why Facet Block Injections Matter: The Prevalence of Facet Joint Pain

Facet joints are among the most common and most frequently overlooked sources of chronic spinal pain. Research published in Pain Physician and Insights into Imaging estimates that facet joints are responsible for 15–45% of chronic low back pain, 27–67% of chronic neck pain, and 34–48% of chronic thoracic spine pain.^{2 3} These numbers mean that nearly one in three patients presenting with persistent back or neck pain may have a facet-mediated component driving their symptoms.

Facet joint pain is common but can be difficult to diagnose because its symptoms often resemble those of other conditions, including herniated discs, muscle strains, and nerve impingement.  Which explains why some never find relief. A properly administered facet block injection is the gold-standard method for determining whether a facet joint is the true pain generator.^{2 4}

How Facet Block Injections Work

There are two primary types of facet block injections, each serving a specific clinical purpose:^{1 5}

1. Intra-Articular Facet Joint Injection

The needle will be positioned directly into the joint capsule. Contrast dye will first be applied to ensure correct positioning of the needle using fluoroscopy. And then the anesthetic-steroid solution will be injected into the joint space. The method aims at addressing inflammation in the joint capsule and is most effective when there is inflammation of the joint lining. ⁵

2. Medial Branch Block (MBB)

The injection will not enter the joint itself, but rather the medial branches. Which are nerves that conduct pain messages from the facet joint to the brain. The anesthetic is injected near the nerves, which blocks the pain signals temporarily. Since the nerves are coming out of the facet joints on two different levels, correct injection at two levels is essential for an effective test.^{2 4}

All the facet block injections at the Deuk Spine Institute are done with the use of fluoroscopic guidance and contrast verification. Fluoroscopic guidance is mandatory, because it is the needed to determine success or failure of the procedure. Researches state that there is a range of effectiveness of facet injections guided by fluoroscopy, which can be from 13% to 74%.^{5 6}

Why Do You Need a Facet Block Injection?

A facet block injection may be recommended when you are experiencing chronic back or neck pain and your physician suspects the facet joints as the source. Common reasons a facet block is ordered include:^{1 2 4}

To confirm the diagnosis. MRI and CT scans can reveal degenerative facet changes, but imaging findings do not reliably correlate with pain. A large percentage of people with severe facet arthritis on imaging have no pain, while many patients with debilitating facet pain show only modest imaging findings. The facet block is the definitive test: if the injection eliminates 80% or more of your pain, it confirms that specific joint as the pain generator.^{2 4}

To reduce inflammation and provide relief. The corticosteroid component suppresses the inflammatory cascade inside the joint, relieving pain, reducing swelling, and often restoring enough comfort for patients to participate meaningfully in physical therapy.^{1 5}

To guide further treatment decisions. A positive facet block response opens the door to more targeted, longer-lasting interventions such as radiofrequency ablation (RFA) or Deuk Plasma Rhizotomy®. A negative response redirects the clinical workup toward other potential pain sources such as disc pathology or sacroiliac joint dysfunction.⁴

What to Expect During a Facet Block Injection

A facet block injection is an outpatient procedure that typically takes 15–30 minutes. Here is what the process looks like at Deuk Spine Institute:

Before the Procedure

You will be asked about your current medications, allergies, and bleeding history. Blood thinners and anti-inflammatory medications may need to be paused beforehand. You should arrange for someone to drive you home.

During the Procedure

You will lie face down on a procedure table. The skin over the injection site is cleaned and numbed with a local anesthetic. Using fluoroscopic guidance, the physician advances a thin needle to the target facet joint or medial branch nerve. Contrast dye is injected to confirm exact needle placement on the live X-ray image. Once positioning is verified, the anesthetic-steroid mixture is delivered. Most patients feel only mild pressure during the injection.⁵

After the Procedure

You will be monitored briefly and asked to perform movements that normally provoke your pain to assess immediate response. The anesthetic component may provide relief within minutes, which is important diagnostic information. The steroid typically takes 3–7 days to reach full effect. Most patients return to normal activities within 24–48 hours with only minor soreness at the injection site.

How Long Do Facet Block Injections Last?

The duration of relief varies by patient, the severity of the underlying joint disease, and the precision of the injection. In general:^{4 5}

The anesthetic component provides immediate but temporary relief lasting several hours, which is primarily useful for confirming diagnosis. The corticosteroid component, when accurately placed, provides anti-inflammatory relief that typically lasts weeks to several months. Some patients experience relief for 6–12 months, particularly when the injection is combined with a structured physical therapy program. However, it is important to understand that facet block injections treat the inflammation. Not the underlying joint degeneration. When the steroid wears off and the degenerative joint continues to produce inflammation, the pain returns.⁵

Patients who require repeat injections every few months are strong candidates for a more durable treatment approach.

Facet Block Injections at Deuk Spine Institute: Why Precision Matters

One of the most common reasons facet block injections fail is that they are not performed with sufficient precision. A facet block that misses the target; even by a few millimeters will not provide diagnostic information or therapeutic relief. This is why Deuk Spine Institute takes a fundamentally different approach:

Fluoroscopy with contrast confirmation on every injection. We never inject blindly. Every needle placement is verified in real-time with fluoroscopic imaging and radiopaque contrast dye to ensure the medication reaches the exact target structure.^{5 6}

Meticulous joint identification. Before any injection, our physicians conduct a thorough clinical evaluation: including physical examination, imaging review, and pain provocation testing. To identify the most likely pain-generating joints. The injection then tests that hypothesis.

Dual-purpose approach. Every facet block at Deuk Spine Institute is treated as both a diagnostic and therapeutic procedure. We track your pain response carefully because that information directly shapes your treatment plan going forward.

We successfully treat patients from Orlando, Melbourne, Tampa, and West Palm Beach who previously had no response to facet injections administered at other spine institutes. In many cases, our patients responded well to facet block injections once they were performed accurately. With some not needing any further treatment before returning to physical therapy and continuing their lives pain-free.

When Facet Block Injections Are Not Enough: Advanced Treatment Options

Facet block injections are an excellent first-line intervention, but they are not a permanent solution for everyone. When injections confirm the facet joint as the pain source but provide only temporary relief, it is time to consider a more lasting approach.⁵

Radiofrequency Ablation (RFA)

Traditional RFA uses a heated probe to burn the medial branch nerve that transmits pain from the facet joint. It is effective but has a significant limitation: the nerve typically regenerates within 6–12 months, and the pain returns. Many patients find themselves locked into a cycle of repeat ablations to maintain moderate pain relief.

Deuk Plasma Rhizotomy® (DPR)

When medial branch blocks confirm that a specific facet joint is generating pain, Deuk Plasma Rhizotomy® deactivates the pain-carrying nerve precisely without burning, without hardware, and without fusion.

DPR is an outpatient, minimally invasive procedure performed under light sedation through a tiny incision. The endoscopic technique allows the identification and treatment of the medial branch supplying the painful facet with low-temperature plasma energy. The advantage of the plasma energy used in this procedure is that it decomposes the target nerve tissue using a significantly lower temperature compared with the traditional RF energy.

Not less significant is what the DPR does not do: the procedure does not involve any fusion of the segments, no implantation of metal material, no excision or destruction of the disc, facet joint, and limitation of normal motion of the spine. The patient gets up on his feet immediately after the procedure and resumes normal activities in 72 hours.

Patient Testimonial

FAQ’s

What is a facet block injection?

A facet joint block is a minimally invasive procedure in which a doctor injects a combination of a local anesthetic and corticosteroid directly into a facet joint in the spine. The injection can serve both diagnostic and therapeutic purposes by helping identify the joint causing the pain while also reducing inflammation and providing pain relief.¹ 

How long does a facet block injection last?

The anesthetic provides temporary relief lasting several hours, which can help confirm the condition. The steroid reduces inflammation and may provide relief for several weeks to several months. In some cases, relief can last 6–12 months, particularly when the procedure is combined with physiotherapy, depending on the severity of joint deterioration.⁴ ⁵ 

Is a facet block injection painful?

Most patients report only mild pressure or a brief sting during the injection. The skin is numbed with a local anesthetic before the procedure needle is advanced. Many patients describe the experience as far less uncomfortable than the chronic pain they have been living with.

What is the difference between a facet block and a medial branch block?

The facet block is an intra-articular injection where medication is injected within the facet joint capsule. Medial branch block is administered to those smaller nerves carrying pain messages from the facet joint to the brain. Both of them are diagnostic tools but medial branch blocks are more specific in diagnosing the facet joint pain and are a prerequisite to ablative procedures.^{2 4}

Why didn’t my facet injection work?

The most common reason a facet injection fails to provide relief is inaccurate needle placement. Without fluoroscopic guidance and contrast confirmation, the medication may not reach the intended target. Other possibilities include incorrect identification of the pain-generating joint or the presence of a different underlying condition such as a disc herniation or sacroiliac joint dysfunction.^{5 6}

Are facet block injections a long-term solution?

No. Facet block injections treat the inflammation, not the underlying joint degeneration. They are valuable for confirming the diagnosis and providing temporary relief during acute flare-ups, but the pain typically returns once the steroid wears off. Patients who need repeat injections every few months are strong candidates for a more durable procedure such as Deuk Plasma Rhizotomy®.⁵

What are the risks of facet block injections?

Facet block injections are generally considered safe. Uncommon risks include temporary soreness at the injection site, mild bruising, allergic reaction to the medication, and in rare cases, infection. Serious complications are extremely rare when the procedure is performed by an experienced physician under fluoroscopic guidance.¹

Does insurance cover facet block injections?

Most major insurance plans, Medicare, and workers’ compensation cover diagnostic and therapeutic facet joint injections when medical necessity is documented. Coverage for advanced procedures varies by carrier Deuk Spine Institute’s team can verify your benefits during a free MRI review.

What is the difference between a facet block injection and an epidural steroid injection?

A facet block injection targets the facet joint or its nerve supply on the back of the spine and is used to diagnose and treat facet-mediated pain. An epidural steroid injection delivers medication into the epidural space surrounding the spinal cord and nerve roots, and is typically used for radicular pain caused by disc herniations or spinal stenosis. The two procedures address different pain sources.

Will I need surgery if facet injections stop working?

Not necessarily. When facet injections confirm the diagnosis but stop providing lasting relief, the next step is typically a nerve-targeted procedure such as Deuk Plasma Rhizotomy®: an outpatient, motion-preserving procedure that permanently deactivates the pain-carrying nerve without fusion or hardware. Spinal fusion is rarely appropriate for facet pain alone and should be reserved for true instability, deformity, or fracture.

Sources

Board Certified Neurosurgeon

Medically reviewed on Aug 18, 2026

Disclaimer: Information provided on this page is for general knowledge purposes only and should not be taken as medical advice.

Key Points

✓ Chronic pain is prevalent among 24.3% of American adults (around 60 million) in 2023. ¹ ²

✓ Modern pain management focuses on addressing pain at its physical origin through minimalistic procedures rather than suppressing symptoms with drugs. ³ ⁴

✓ Epidural steroid injections offer only modest, short-term relief lasting up to three months (AAN, 2025). ⁵ ⁶

✓ Radiofrequency ablation provides facet joint pain relief lasting up to one year, but pain often returns as nerves regenerate. ⁷ ⁸

✓ PRP therapy is rated Level III (fair) evidence for intradiscal use by the 2025 ASIPP guidelines. ⁹ ¹⁰

✓ Failed back surgery syndrome occurs in up to 32.5% of traditional spine surgery patients. ¹⁹ ²⁰

✓ Deuk Laser Disc Repair® has a peer-reviewed 94.6% success rate, current 99% pain elimination rate, and 0.01% complication rate across 2,700+ procedures. ¹¹ ¹²

What Is Advanced Pain Management?

Advanced pain management is a medical specialty devoted to diagnosing and treating pain-related disorders using interventional techniques. Unlike general pain management, which often relies on oral medications alone, advanced pain management seeks to identify the structural source of pain and address it directly through targeted, minimally invasive procedures. ³ ⁴

The goal is not simply to reduce pain temporarily. It is to restore function, improve quality of life, and reduce or eliminate the need for long-term medication use including opioids. ⁴

Physicians who specialize in advanced pain management must possess in-depth knowledge of the physiology of pain, the ability to interpret specialized diagnostic imaging such as MRI and CT, skill in performing interventional procedures (such as epidural injections, facet blocks, nerve ablations, and regenerative therapies), and experience with both conservative and surgical treatment pathways. ³ ⁴

Why advanced pain management matters now

Chronic pain has become one of the most significant public health crises in the United States. According to CDC data published in November 2024, 24.3% of U.S. adults experienced chronic pain in 2023, up from 20.4% in 2019 an increase that occurred across most demographic groups. ¹ ² Of those, 8.5% (approximately 21 million people) experience high-impact chronic pain that frequently limits work and daily activities. ¹

The economic burden is staggering. A 2025 study published in Medical Care estimated that chronic pain costs the U.S. approximately $700 billion annually in direct healthcare costs, lost productivity, and disability payments. ¹³ Low back pain alone remains the leading cause of years lived with disability worldwide and is projected to affect 850 million people annually by 2050. ⁷

Meanwhile, opioid prescribing for chronic pain has dropped 52% from its 2012 peak, falling from 260.5 million prescriptions to 125.7 million in 2024. ¹⁴ This has created an urgent need for effective, non-opioid pain management alternatives. Which is precisely what advanced pain management provides.

Understanding Back Pain and Neck Pain: The Most Common Chronic Pain Conditions

The most common conditions treated through advanced pain management are chronic back pain and chronic neck pain. Understanding the underlying structural causes of these conditions is essential for effective treatment.

Back pain

Every day, millions of people across the United States experience back pain. Back pain can occur when there is a traumatic injury to an intervertebral disc in the spine, which causes an annular tear to form. The pressure on the disc causes herniation of the nucleus pulposus through the annular tear. This triggers an inflammatory response within the torn annular fibers, generating pain signals that travel up the nerves to the brain and produce localized back pain. ¹⁵ When inflammation spreads to nearby nerve roots, it causes radiating leg pain a condition known as sciatica. ¹⁵ ¹⁶

Neck pain

Over 30% of American adults have had neck pain. ¹⁷ It is caused by the same process as back pain. An injury to the intervertebral disc in the neck creates an annular tear and leads to the development of herniation, inflammation, and production of pain signals. Inflammation that involves the nerve roots results in radiating pain in the arm, numbness, or tingling – cervical radiculopathy. ¹⁷

Non-Surgical Advanced Pain Management Treatments

When conservative treatment options fail in treating chronic back or neck pain (rest, physiotherapy, and oral medication), there are several interventional methods that can be employed. Each one is aimed at a specific cause of pain, and it is this match between the two that most patients miss.

Epidural steroid injections (ESIs)

Epidural steroid injection is a procedure where steroids are administered into the area of the spine called the epidural space. This aims to decrease inflammation and relieve pain for cases like radiculopathy, herniated disc, and spinal stenosis. ⁵ ⁶

However, evidence for their long-term effectiveness is limited. A 2025 systematic review published in Neurology by the American Academy of Neurology (AAN), which analyzed 90 studies over a 16-year period, concluded that ESIs may modestly reduce pain for up to three months and disability for up to six months; but found no studies demonstrating effectiveness of repeated treatments or examining their impact on daily function and return to work. ⁵ ⁶

For patients with radiculopathy, the review found that 26% more patients receiving ESIs reported reduced disability at three months compared to controls, and 12% more at six months. ⁶ For spinal stenosis, the evidence was weaker and less consistent. ⁵

ESIs are best understood as a temporary, diagnostic, and symptom-management tool not as a cure for the underlying structural problem. ⁵ ⁶

Facet block injections and medial branch blocks

Facet joint injections refer to the administration of local anesthetics (and sometimes steroids) either in or around the facet joint to check whether the facet joint is causing pain. Medial branch blocks involve the injection of numbing medication around the tiny nerve fibers that carry pain sensations from the facet joints. ⁷ ⁸ The injections have a twofold function of being diagnostic and pain-relieving.

Radiofrequency ablation (RFA) / Rhizotomy

If diagnostic facet blocks demonstrate that the pain emanates from facet joints, radiofrequency ablation can offer more prolonged relief. Radiofrequency ablation utilizes the application of radiofrequency energy to create a thermal lesion in the medial branch nerve, thereby blocking pain signals from the facet joint. ⁷ ⁸

Radiofrequency ablation has emerged as the gold standard for the management of chronic pain resulting from facet joints, with literature demonstrating significant pain relief for up to a year or even longer in many cases. ⁷ A comparative effectiveness study carried out in 2026 reported that RFA was the most reliable form of percutaneous facet treatments in terms of providing prolonged relief. ⁸ However, nerve regenerations tend to occur within 6-18 months, and pain could resurface. ⁷ ⁸

A systematic review conducted in 2024 identified atrophy of the multifidus muscle as an important complication of RFA in the lumbar area. ⁷

The Deuk Plasma Rhizotomy® procedure offers an advanced endoscopic alternative to traditional radiofrequency ablation offering direct visualization of the facet joint and hence better management of the pain-generating site.

Platelet-rich plasma (PRP) therapy

PRP therapy concentrates platelets and growth factors from a patient’s own blood and injects them into damaged tissue to stimulate healing. For spinal pain, PRP has been used in both intradiscal and epidural applications. ⁹ ¹⁰

The 2025 ASIPP (American Society of Interventional Pain Physicians) guidelines the most comprehensive evidence-based review of regenerative therapies for chronic low back pain. Rated intradiscal PRP at Level III (fair) evidence with a moderate clinical recommendation. ⁹ A 2023 systematic review of 13 RCTs and 27 non-RCTs found that PRP offers a safe alternative with significant benefits and minimal side effects. ¹⁰

However, a 2025 meta-analysis comparing PRP to corticosteroid injections for lumbar radicular pain found that PRP did not demonstrate superior improvements in pain or disability scores, and called for higher-quality RCTs with standardized PRP preparation protocols. ¹⁸

PRP therapy is promising but should be considered within a comprehensive treatment plan rather than as a standalone solution.

Bone marrow aspirate concentrate (BMAC) therapy

BMAC therapy is an example of a stem cell-based therapy for regeneration. Bone marrow houses stem cells that have the capability of differentiating into bone, cartilage, and connective tissues. Using a special needle, an enriched collection of these cells is collected from the bone marrow of the patient and injected into the site of injury to regenerate tissues. ⁹

Intradiscal BMAC received a fair Level III evidence according to ASIPP 2025 guidelines with a moderate clinical recommendation same as PRP. ⁹ More high-quality randomized controlled trials will be necessary for further evidence.

When Non-Surgical Treatments Fail: Surgical Options

Once conservative treatment and interventional techniques have not produced results despite being administered adequately for a sufficient trial period (usually 6–12 weeks) or when there is progression of neurologic symptoms, surgical interventions come into play. ¹⁶

A surgery needs to be chosen depending on the underlying pathology responsible for the pain. Sadly, there are numerous people who undergo spinal surgeries, which do not bring about any significant results. A prospective cohort study conducted in 2024 involving 512 patients found that there was a presence of FBSS among 32.5% of the study participants, while a study using an insurance claims database involving over 102,000 patients found that 8.4% were diagnosed with FBSS within a year of their first surgery. ¹⁹ ²⁰

Traditional spine surgeries and their limitations

Classical surgical interventions for disc-related back and neck pain are:

Spinal fusion is performed by surgically joining two or more vertebrae with metal instruments and bone grafts. Although it is useful for providing stability, this procedure leads to a loss of mobility of the fused vertebral segments, and adjacent segment disease is a recognized complication. ¹⁹ ²¹

Microdiscectomy is a technique aimed at the removal of the herniated part of the disc. Although it helps to relieve leg pain, it does not eliminate an inflammation of annular tear; thus, the main cause of axial back or neck pain remains. ²¹

Laminectomy is a removal of part of the bony vertebra called lamina to decompress the spinal cord. This procedure requires cutting through bone and muscles, thereby damaging structural integrity of the spine. ²¹

All of the above surgical procedures are characterized by hospitalization, anesthesia, large amount of tissue trauma and prolonged recovery time. There are significant risks of serious complications including infection, hardware malfunction, dural tears, and even revision surgery. ¹⁹

Deuk Laser Disc Repair®: The Minimally Invasive Alternative

Deuk Laser Disc Repair® is a full-endoscopic, minimally invasive laser spine surgery developed by Dr. Ara Deukmedjian, MD. A board-certified neurosurgeon and a pioneer in endoscopic back and neck pain treatment. ¹¹ ¹²

Unlike traditional surgeries that cut through bone, remove healthy tissue, or fuse vertebrae together, DLDR treats the actual structural source of discogenic pain: the inflamed posterior annular tear. Dr. Deukmedjian was the first surgeon in the world to publish this endoscopic laser debridement technique. ¹¹

How Deuk Laser Disc Repair® works

The procedure begins with a 4–7 mm incision smaller than the diameter of a pencil eraser. A cylindrical dilator is inserted to gently separate muscle tissue (without cutting it), creating a narrow passage through which the entire surgery is performed endoscopically. ¹¹ ¹²

An endoscopic camera is inserted through a tubular retractor, providing high-definition visualization inside the disc. A precision Holmium YAG laser is guided with millimeter accuracy to remove only the damaged, inflamed tissue from the posterior annular tear and the herniated nucleus pulposus. This process is called debridement of the annular tear. Eliminates the pain-generating tissue while preserving healthy disc structure. ¹¹

The procedure takes approximately one hour, is performed under light sedation in an outpatient surgery center, and the patient goes home the same day. No hospital admission is required. No opioid painkillers are needed after surgery. ¹¹ ¹²

Published outcomes

Deuk Laser Disc Repair® is the only peer-reviewed, published surgery that specifically treats the inflamed annular tear as the source of discogenic pain. Published outcomes include:

A peer-reviewed study in Surgical Neurology International on 66 consecutive cervical DLDR patients found a 94.6% overall success rate, with 50% of patients achieving 100% resolution of all symptoms. VAS pain scores dropped from 8.7 preoperatively to 0.5 postoperatively. No perioperative complications occurred. ¹¹

Published peer-reviewed abstracts on lumbar DLDR in 215 procedures demonstrated 91.7% resolution of axial pain and 92.1% resolution of radicular symptoms with a 0.01% complication rate. ¹²

Current outcomes across more than 2,700 procedures show 99% pain elimination with a 0.01% complication rate. ¹² ²²

Conditions treated

Deuk Laser Disc Repair® effectively treats several spinal conditions at their structural source:

Herniated disc — When the nucleus pulposus pushes through a torn annulus fibrosus and compresses nearby nerves, DLDR removes the herniated material and debrids the inflamed annular tear. ¹¹

Bulging disc — Similar to herniated discs, bulging discs that cause pain through annular inflammation and nerve compression can be repaired with the same endoscopic laser technique. ¹¹

Degenerative disc disease — Untreated disc inflammation leads to progressive disc degeneration. DLDR treats the inflamed annular tear before further degeneration occurs. ¹¹

Spinal stenosis — When herniated discs or degenerative changes narrow the spinal canal, DLDR can remove the contributing disc pathology and decompress the neural structures. ²²

Sciatica and radiculopathy — Radiating arm or leg pain caused by disc herniation compressing nerve roots is directly addressed by removing the herniated material. ¹¹ ¹⁶

Curing Chronic Pain: Beyond Pain Management

While advanced pain management techniques provide essential tools for diagnosis and temporary relief, the ultimate goal should be eliminating the source of chronic pain not managing it indefinitely.

At Deuk Spine Institute, we treat a variety of spinal conditions using world-class interventional pain management techniques, evidence-based therapy, and groundbreaking surgeries such as Deuk Laser Disc Repair®. We understand that becoming pain-free can feel like being reborn.

If you are suffering from chronic back or neck pain, submit your MRI for a free review and begin your path toward living a pain-free life.

FAQs

What is advanced pain management?

Advanced pain management is a field in medicine which utilizes interventional methods like injection procedures, nerve blockades, regenerative treatment methods, and minimally invasive surgical operations to treat the structures causing chronic pain. ³ ⁴ While conventional pain management mainly employs medicines, advanced pain management aims at locating the structures or nerves which cause the pain.

What is the most effective treatment for chronic back pain?

The most effective treatment depends entirely on the specific structural cause of your pain. ³ Facet joint pain responds well to radiofrequency ablation. ⁷ ⁸ Disc-related pain (herniated discs, bulging discs, degenerative disc disease) is most effectively treated by procedures that address the damaged disc itself. Deuk Laser Disc Repair® has a published 94.6% success rate for cervical disc disease and current outcomes showing 99% pain elimination. ¹¹ ¹² Epidural steroid injections provide only short-term relief. ⁵ ⁶

Do epidural steroid injections actually work for back pain?

A 2025 systematic review by the American Academy of Neurology found that epidural steroid injections may modestly reduce pain for up to three months and disability for up to six months for some patients but the effects are limited and there is no evidence that repeated injections are effective. ⁵ ⁶ They are best used as a diagnostic and short-term management tool, not a long-term solution.

What is the difference between pain management and pain elimination?

Pain management attempts to decrease pain to a tolerable level using repetitive treatments like injections, medicines, or physiotherapy. Pain elimination involves addressing the structural cause of pain (inflammation of annular tear or disc herniation) and treating it so that the pain will not recur in the future. ¹¹ Deuk Laser Disc Repair® eliminates the cause of discogenic pain as opposed to managing the pain.

Is PRP therapy effective for back pain?

PRP has demonstrated itself to be effective as a safe and non-surgical treatment for chronic low back pain. The 2025 ASIPP guidelines have assigned a Grade III (fair) level of evidence to the intradiscal use of PRP with a moderate clinical recommendation. ⁹ ¹⁰ Nevertheless, a 2025 meta-analysis showed that PRP was not superior to corticosteroid injections when treating lumbar radicular pain. ¹⁸ PRP can be considered in the overall treatment strategy; however, it has not been proven to be equivalent to surgical treatment of diagnosed disc problems.

What is failed back surgery syndrome, and how common is it?

Failed back surgery syndrome (FBSS) refers to persistent or recurrent pain after one or more spinal surgeries. A 2024 prospective study found FBSS occurred in 32.5% of cases. ¹⁹ A large insurance database study of over 102,000 patients found 8.4% were diagnosed with FBSS within 12 months. ²⁰ FBSS is most common after spinal fusion and multi-level procedures. The high failure rate of traditional spine surgery is one of the key reasons for minimally invasive alternatives like Deuk Laser Disc Repair®  which has a 0.01% complication rate. ¹² ¹⁹

How is Deuk Laser Disc Repair® different from traditional spine surgery?

Deuk Laser Disc Repair® is a full-endoscopic procedure performed through a 4–7 mm incision under light sedation. ¹¹ It uses a precision laser to remove only the damaged, inflamed tissue inside the disc while preserving healthy disc structure and spinal motion. Traditional surgeries such as spinal fusion, laminectomy, and microdiscectomy involve larger incisions, general anesthesia, hospital stays, bone cutting, and significantly longer recovery periods. ¹¹ ¹² ²¹ DLDR patients go home the same day and do not require opioid painkillers after surgery. ¹¹

Sources

But not every broad label means the same thing. Some reflect real diagnostic complexity, while others reflect a workup that stopped short of a physical exam correlating what the MRI showed. This article walks through how to tell the difference, and what a more complete diagnostic process actually looks like.

If your workup stopped at a label like chronic back pain or degenerative disc disease, the Deuk Spine Exam® is built to go one step further. It correlates your MRI findings with a hands-on physical exam and your pain history to identify the actual structural source behind your symptoms, not just describe how long you have had them. Here is what that distinction means for your treatment options.

What Does It Mean When Your Diagnosis Is Just Chronic Pain?

“Chronic pain” is a duration label, not a structural one. In clinical terms, pain that comes and goes for more than two weeks already qualifies as chronic, a much lower bar than most patients assume.

The label tells a provider, and an insurer, how long you have been hurting. It does not name the tissue, joint, or nerve generating that pain. Two patients can carry the exact same “chronic back pain” label with two completely different structural causes underneath it.

Think of it the way you would think of a fever. A fever confirms that something is wrong. It does not name the infection behind it, and no one would stop the workup there.

Why Do Doctors Use Broad Labels Like Degenerative Disc Disease?

Broad labels get used because imaging shows some degree of disc wear on nearly every adult spine, which makes “degenerative disc disease” an easy line to write down, even when it has not been confirmed as the actual pain generator in that patient.

Research by Jensen et al. in the New England Journal of Medicine found that a majority of pain-free adults show disc abnormalities on MRI, and later reviews of pain-free adults confirmed the same pattern. That single finding is why an image on its own cannot confirm that a given disc is the source of a specific patient’s pain.

A few reasons broad labels persist in everyday practice.

• Imaging findings are common. Disc wear shows up on scans of people who have no pain at all, so its presence alone proves little.
• Visit time is limited. A short appointment often does not allow for the physical exam needed to correlate imaging with symptoms.
• The label is billable and defensible. It satisfies documentation requirements without requiring a specific structural answer.
• No single test adds the missing specificity. Identifying the exact source usually takes a combination of exam findings, not one scan.

How Does a Label Delay the Right Treatment?

When a label stands in for a diagnosis, the treatment plan defaults to managing symptoms broadly instead of targeting one structural problem directly.

This is also where two timelines get confused. Chronic pain simply means pain on and off for more than two weeks. Failed conservative treatment is a separate marker, reached only after six to twelve weeks of physical therapy, medication, or injections have not worked.

A patient can be told they have “chronic pain” almost immediately, then spend months in generic management before anyone revisits whether conservative treatment has actually failed.

Common signs the label has replaced the diagnosis.

• Repeat injections that bring short-term relief and nothing lasting.
• Ongoing medication management with no discussion of a structural cause.
• A note that your MRI “showed some degeneration” with no explanation of whether that finding matches your symptoms.
• Advice to keep monitoring the situation well past the point where conservative treatment has failed.

What Is the Difference Between a Pain Label and a Structural Diagnosis?

A structural diagnosis names the actual tissue causing pain, at a specific spinal level, rather than describing how long the pain has lasted.

In Dr. Deukmedjian’s clinical experience across more than 2,700 Deuk Laser Disc Repair® procedures, chronic back pain breaks down into a small set of recurring structural categories, not an undefined single condition.

• Disc injuries account for the largest share, roughly 85%, most often at L4-L5, then L5-S1, then L3-L4, then L2-L3.
• Facet joint pain is the next most common source, following a similar pattern by level.
• Sacroiliac joint and piriformis pain make up roughly 10% combined, a smaller but real category.
• Vertebral body fractures account for less than 0.5%, and the remaining sources make up about 5%.

This breakdown reflects clinical experience with treated patients, not a published research taxonomy, and it is offered as a framework for what to ask about, not a guarantee of what any one patient will find.

Why Isn’t an MRI Enough to Find the Source of Your Pain?

An MRI shows anatomy. On its own, it does not confirm which specific structure is generating your pain.

Two guardrails matter here, because they get confused often. A pinched nerve does not cause back or neck pain; it causes radiating symptoms into an arm or leg. Spinal stenosis causes leg symptoms, heaviness, cramping, or weakness that eases with rest, not back pain itself.

A patient can have both a disc problem and stenosis at the same time, but they are separate findings that need separate correlation.

A complete workup adds several things imaging cannot provide on its own, the kind of correlated diagnostic process a structural finding depends on.

• A hands-on physical exam checking reflexes, strength, and sensation against what the imaging shows.
• A detailed pain history, including when it started, what makes it worse, and what it feels like.
• Correlation between the two, confirming that the structure on the scan actually matches the symptom pattern.
• A check for overlapping conditions, so nerve pain, joint pain, and stenosis are not lumped into one label.

How Does the Deuk Spine Exam® Identify the Actual Source of Chronic Pain?

The Deuk Spine Exam® combines MRI review, a physical exam, and a detailed pain history into one correlated diagnostic process, rather than treating the scan as the answer by itself.

Dr. Ara Deukmedjian, MD, FAANS, a board-certified neurosurgeon with 30+ years of experience, developed the method after seeing how often a broad label left patients without a treatable next step. In his clinical experience, the approach has produced 99% diagnostic accuracy in identifying the structural source of a patient’s pain.

The goal is a named, specific finding rather than a duration-based label, such as a posterior annular tear at L4-L5 or facet joint arthritis at L5-S1, something a treatment plan can actually target.

What Should You Do if You Were Told to Just Live With It?

Being told to manage your pain indefinitely is not the end of the road. It is usually a sign that the workup stopped at a label instead of continuing to a structural diagnosis.

A reasonable next step is a second opinion focused specifically on correlating your existing MRI with a physical exam, not simply repeating the same imaging. Sending your MRI for a free review is a low-cost way to find out, with no obligation, whether a more specific structural cause fits your symptoms and whether a motion-preserving option like Deuk Laser Disc Repair® could be relevant to your case.

Bottom Line

A chronic pain label describes how long you have hurt. It does not name what is causing it.

If your care has stalled at a label like degenerative disc disease or chronic pain syndrome, ask specifically whether your MRI has ever been correlated with a physical exam and pain history. Send your MRI for a free review and get a written answer on whether a more specific, treatable diagnosis fits your symptoms.

Frequently Asked Questions

Is a chronic pain label the same as a diagnosis?

A chronic pain label is not the same as a diagnosis. It confirms that pain has lasted or recurred for more than two weeks, but it does not identify the specific tissue, joint, or nerve causing it.

Is degenerative disc disease serious?

Degenerative disc disease is not automatically serious on its own, since some disc wear shows up on scans of people who have no pain at all. What matters is whether the specific disc shown on your MRI has been confirmed, through a physical exam and pain history, as the actual source of your symptoms.

Why doesn’t my MRI explain my pain?

Your MRI may not explain your pain because imaging shows anatomy without confirming which structure is actually generating your symptoms. A physical exam and a detailed pain history have to be correlated with the scan before a specific structural cause can be confirmed.

What if my doctor told me to just manage my pain?

If your doctor told you to just manage your pain, that advice usually reflects a workup that stopped at a broad label rather than continuing to a structural diagnosis. A second opinion focused on correlating your MRI with a physical exam is a reasonable next step.

Can a specific cause of chronic back pain actually be found?

A specific cause of chronic back pain can often be found when imaging is correlated with a physical exam and pain history. In Dr. Deukmedjian’s clinical experience across more than 2,700 Deuk Laser Disc Repair® procedures, most chronic back pain traces to a small set of recurring structural sources, most commonly a disc injury.

What happens during the Deuk Spine Exam®?

During the Deuk Spine Exam®, your MRI is reviewed alongside a hands-on physical exam and a detailed history of your pain pattern. The goal is to correlate all three so the structural source of your pain can be named specifically, rather than described only as chronic pain.

Is a second opinion worth it if I already have a diagnosis?

A second opinion is worth considering if your existing diagnosis is a broad label rather than a specific structural finding. Bringing your MRI for a correlated physical exam can confirm whether the original label matches an identifiable, treatable cause.

This article is intended for general education and does not substitute for professional medical advice, diagnosis, or treatment. Always talk with a qualified healthcare provider before making decisions about your spine care, and do not delay evaluation based on content you read online.

Board Certified Neurosurgeon

Medically reviewed on Aug 13, 2026

Medical Disclaimer: This content is for educational purposes only and does not constitute medical advice. Individual results may vary. Always consult with your healthcare provider about your specific condition and treatment options.

Key Points

✓ Fibrin sealant is FDA-approved for surgical hemostasis not for intradiscal injection. Discseel is an off-label use. ¹ ²

✓ The Phase III FDA trial (220 patients) found no difference between fibrin and saline placebo at six months and was stopped early. ³ ⁴

✓ A post hoc analysis of four RCTs (50 patients) also found no difference between fibrin sealant and saline at 12 months. ³ ⁵

✓ The largest Discseel study (Pauza et al., 2024; 827 patients) had no control group, a single operator, ~40% dropout, and its authors called for a future randomized controlled trial. ⁶ ⁷

✓ The VA classified Discseel as “investigational and experimental” (December 2025). Most insurers deny coverage; patients pay $15,000–$20,000+ out of pocket. ¹ ⁸

✓ During Deuk Laser Disc Repair® on a prior Discseel patient, Dr. Deukmedjian observed hemorrhagic, necrotic, scar-filled disc tissue consistent with an adverse reaction. ²⁴

Why the Discseel Procedure Deserves Closer Scrutiny

As a board-certified neurosurgeon with more than 30 years of experience and founder of Deuk Spine Institute, I have seen many trends in spine care come and go. I have rarely been as worried as I am about the current trend toward Discseel treatment, which, although heavily marketed, does not have sufficient research and evidence to support spending so much money on it.

This article is not a dismissal of innovation. Progress in spinal medicine has helped a lot of people, and I have spent my professional life trying to make less invasive ways of treating the spine. However, it is their right to know what research has proven and what it has not, before they decide about something which will affect their health and wallet.

What Is the Discseel Procedure?

Discseel procedure is a minimally invasive, non-surgical technique invented by Dr. Kevin Pauza. ² The technique comprises of two stages: the first stage involves diagnosing annulogram using fluoroscopy. ² ⁶ Annulogram refers to the introduction of a contrast medium that identifies any tear on the annulus fibrosus. The hard outer rim of the spinal disc. ² ⁶ The second stage entails introducing a fibrin sealant made of fibrinogen and thrombin into the identified tear. ² ⁶

Fibrin is a naturally occurring protein involved in blood clotting and wound healing. ² Commercial fibrin sealants (manufactured by Baxter and Johnson & Johnson) are FDA-approved for specific surgical hemostasis applications. Such as sealing dural tears during spine surgery. ¹ ² However, injecting fibrin sealant into a spinal disc is an off-label use. The FDA has not approved fibrin by injection for the treatment of chronic back pain, annular tears, herniated discs, or degenerative disc disease. ¹

This distinction matters. Off-label use is legal and sometimes clinically justified, but it also means the treatment has not undergone the rigorous FDA review process for the specific condition being treated. ¹

What the Clinical Evidence Actually Shows

Understanding the Discseel procedure requires separating marketing claims from published, peer-reviewed data. Here is what the research shows as of now.

The FDA pilot study (2014)

The earliest human trial was a prospective, nonrandomized, multicenter pilot study approved by the FDA to assess safety. ³ ⁵ Fifteen adults with chronic single- or two-level lumbar discogenic pain received intradiscal fibrin sealant injections. At 24-month follow-up, approximately 40% of subjects reported meaningful improvement, with no complications reported. ³ ⁵ The study’s authors concluded these results warranted further investigation via a randomized, double-blind, placebo-controlled trial. ³

It is important to note: this was a small, uncontrolled pilot study. Without a placebo comparison group, it is impossible to determine whether improvements were attributable to the fibrin sealant or to the natural history of chronic pain, the placebo effect, or the disc puncture itself.

The Phase III FDA trial (failed)

The larger Phase III FDA trial enrolled 220 patients with painful degenerative disc disease and randomized them to receive either intradiscal fibrin sealant or a placebo saline injection. ³ ⁴ The trial was halted after six months because early results were disappointing. There was no statistically significant difference in pain reduction or functional improvement between the fibrin group and the saline placebo group. ³ ⁴

This is arguably the most important piece of evidence in the Discseel conversation. In the gold standard of clinical research a randomized, double-blind, placebo-controlled trial. Fibrin sealant did not outperform a simple saline injection. ³ ⁴

Post hoc analysis of four RCTs (Ju et al., 2022)

A single-center, post hoc comparison drew from four multicenter randomized controlled trials totaling 50 patients with symptomatic degenerative disc disease. ⁵ Both the treatment group (38 patients receiving intradiscal agents including fibrin sealant, growth factor, or stem cells) and the control group (12 patients receiving saline) showed significant decreases in pain and disability scores. However, by 12 months there was no significant difference between the groups. ⁵

At two-year follow-up, 100% of the saline-injected control patients reported sustained improvement without requiring further treatment, compared to 84% of the treatment group. ⁵ The implication is notable: saline alone performed at least as well as fibrin sealant.

The Pauza et al. study (2024)

The largest published Discseel study, and the one most prominently cited by proponents, was a retrospective cohort analysis of 827 patients published in Pain Physician in November 2024. ⁶ ⁷ All patients had chronic low back pain lasting longer than six months (average duration 11 years) and had failed at least four prior invasive treatments. ⁶ Results showed statistically significant improvement across multiple outcome measures at one, two, and three years. ⁶

However, this study has substantial methodological limitations that must be understood. ⁶ ⁷ It had no control group; patients served as their own baseline controls. It was a single-center study with a single operator (the procedure’s inventor). The analysis was retrospective, with outcomes reported prospectively and calculated retroactively. There was approximately 40% patient dropout by 36 months. ⁷ And the study’s own authors explicitly recommended that a future randomized double-blind controlled trial be conducted. ⁶ ⁷

A retrospective, uncontrolled cohort study by the inventor of a procedure is the weakest form of clinical evidence for evaluating treatment efficacy. Without a control arm, it is impossible to separate the effect of fibrin from the placebo effect, regression to the mean, the natural course of the condition, or the effects of concurrent treatments patients may have pursued during the three-year follow-up.

The FDA and Insurance Question

One of the most common points of confusion around Discseel involves its regulatory status. While proponents describe it as using “FDA-approved fibrin,” this framing requires clarification. ¹ ²

The FDA has approved the use of fibrin sealants in certain surgical hemostasis applications that involve tissue closure during surgery without using sutures. ¹ ² However, the FDA has not approved the intradiscal injection of fibrin sealant to treat chronic back pain, annular tear, or degenerative disc disease. ¹

The U.S. Department of Veterans Affairs issued a formal clinical determination (CDI 00059, effective December 1, 2025) that explicitly classifies the Discseel procedure as “investigational and experimental” with “insufficient evidence from peer-reviewed medical literature to support the safety and efficacy of this treatment.” ¹ The VA further determined the procedure is “not medically necessary.” ¹

The insurance implications of this regulatory status are significant. Most private insurance plans do not cover Discseel, with approximately 90% of patients paying entirely out of pocket. ⁸ ⁹ Total costs typically range from $15,000 to $20,000 plus additional fees for anesthesia, the annulogram, and facility usage. ⁸ ⁹

For comparison, a microdiscectomy is a well-established, insurance-covered surgical procedure with decades of Level I evidence. Typically costs patients $1,000 to $3,000 out of pocket with insurance. ¹⁰ Even spinal fusion, one of the most expensive spine procedures, commonly results in $4,000 to $8,000 in out-of-pocket costs with insurance coverage. ¹⁰

The Annular Tear Question

A central premise of the Discseel procedure is that annular tears are a primary driver of chronic low back pain and that sealing them with fibrin addresses the root cause. ² ⁶ While annular tears can certainly be symptomatic and clinically significant, there is important context patients should understand.

Annular tears are common findings even in people with no symptoms whatsoever. Research published in Radiology found annular tears present in 56% of asymptomatic volunteers on MRI. Meaning more than half of pain-free individuals had annular tears visible on imaging. ¹¹ ¹² The same study found bulging discs in 81% and focal disc protrusions in 33% of symptom-free volunteers. ¹¹

The StatPearls article on annular disc tears states that “annular fissures may be symptomatic or asymptomatic,”. And that “incidental tears do not necessarily need to be treated as they may heal on their own.” ¹³ They go on to say, “As of now, there is no definitive evidence that the treatment of asymptomatic annular tears offers any benefit.” ¹³

This does not mean annular tears are never clinically meaningful. Some tears are clearly symptomatic and associated with significant pain. The concern is that the Discseel diagnostic process is an annulogram that identifies tears the proprietary provider claims MRI cannot detect. And treat tears that are incidental and not responsible for the patient’s pain. ² ¹³

What I Saw Inside a Discseel Treated Disc

Clinical observations sometimes reveal what studies alone cannot. Recently, we treated a patient from Georgia who had previously undergone the Discseel procedure at two disc levels. During his endoscopic Deuk Laser Disc Repair® surgery, I had the opportunity to directly visualize the interior of a disc that had been treated with intradiscal fibrin sealant.

In thirty years of practice, it was among the most concerning disc interiors I have encountered. ²⁴

Both treated discs showed the same disturbing characteristics: extensive scar tissue formation, active hemorrhaging, and brown, necrotic disc material. The tissue appeared to have undergone a severe adverse reaction to the injected product. This is consistent with what one might expect when a foreign biologic substance is introduced into the relatively avascular disc environment. The disc has limited blood supply and a unique biochemical milieu that may not respond favorably to exogenous fibrin. ²⁴

After our team removed this damaged tissue during the endoscopic laser disc repair procedure, the patient achieved complete pain relief and returned home to Georgia symptom-free. ²⁴

I want to be transparent about the limitations of this observation. This is a single clinical case, not a controlled study. However, it raises questions that merit further investigation: What does the interior of a Discseel-treated disc look like at six months, one year, or three years? Are adverse tissue reactions common? Without long-term histological studies, we simply do not know.

What Patients Should Know Before Considering Discseel

1. Understand the evidence hierarchy

The strongest evidence available is a Phase III randomized, placebo-controlled trial. Showed no difference between fibrin sealant and saline injection. ³ ⁴ The supportive evidence comes from uncontrolled, retrospective, single-operator studies by the procedure’s inventor. ⁶ ⁷ Patients should ask their provider to explain this distinction clearly.

2. Clarify the FDA status

When a provider says “FDA-approved fibrin,” ask specifically: Is fibrin approved for injection into spinal discs to treat my condition? The answer is no. ¹ Off-label use is not the same as FDA approval for a specific indication.

3. Get multiple opinions from non-Discseel providers

Seek evaluation from surgeons and spine specialists who do not perform the Discseel procedure and have no financial interest in your decision. ¹⁴ A physician experienced in diagnosing both discogenic pain and other causes of chronic low back pain. Including facet joint disease, sacroiliac dysfunction, and piriformis syndrome is the most important factor in ensuring an accurate diagnosis.

4. Consider the opportunity cost

Patients who spend $15,000–$20,000 on Discseel and do not achieve relief still need treatment. ⁸ ⁹ Many ultimately pursue the proven procedures they likely needed from the start discectomy, laminectomy, or endoscopic laser disc repair. After months or years of continued suffering. The patient from Georgia is one example, but he is far from the only one.

5. Ask about long-term tissue effects

No published histological studies document what happens inside human discs months to years after fibrin sealant injection. ¹ ³ The absence of this data should give patients and clinicians pause.

The Better Way: Deuk Laser Disc Repair (DLDR)

For patients suffering from disc-related chronic back or neck pain, my revolutionary procedure, Deuk Laser Disc Repair (DLDR)®, provides a safer, evidence-supported alternative. DLDR is a minimally invasive endoscopic procedure that directly visualizes and treats the damaged disc tissue. Removing the actual source of pain while preserving healthy disc structure and minimizing collateral damage to surrounding muscles, nerves, ligaments, tendons, and joints.

Unlike the Discseel approach of injecting material into the disc and hoping for biological remodeling, DLDR uses a targeted laser to vaporize the damaged disc tissue that is compressing nerves and generating pain. The procedure is performed through a small incision under endoscopic guidance, allowing patients to return home the same day.

Make Your First Pain-Free Move

If you are seeking relief from lumbar or cervical pain, have been recommended for spinal fusion, or are still dealing with chronic pain after a failed procedure including a failed Discseel. We can help.

Upload your latest MRI for a free review and a personal consultation with myself, Ara Deukmedjian, M.D., founder of Deuk Spine Institute and creator of the Deuk Laser Disc Repair® procedure.

FAQs

Is the Discseel procedure FDA-approved?

No. The fibrin sealant used in the Discseel procedure is FDA-approved for certain surgical hemostasis applications (such as sealing dural tears during surgery), but it is not FDA-approved for intradiscal injection to treat chronic back pain, annular tears, or degenerative disc disease. ¹ ² The intradiscal use is considered off-label. The U.S. Department of Veterans Affairs has classified the procedure as investigational and experimental. ¹

Does insurance cover the Discseel procedure?

In most cases, no. Approximately 90% of patients pay entirely out of pocket because insurers classify Discseel as experimental. ⁸ ⁹ Total costs typically range from $15,000 to $20,000 plus additional fees. ⁸ By comparison, established spine procedures such as microdiscectomy are covered by most insurance plans with typical out-of-pocket costs of $1,000–$3,000. ¹⁰

What did the Phase III clinical trial show?

The Phase III FDA trial randomized 220 patients to receive either intradiscal fibrin sealant or a saline placebo injection. ³ ⁴ At six months, there was no statistically significant difference in pain or functional outcomes between the two groups, and the trial was stopped early due to these disappointing results. ³ ⁴ This remains the highest-quality controlled evidence available on intradiscal fibrin sealant.

What about the Pauza 2024 study with 827 patients?

The Pauza et al. (2024) study published in Pain Physician is the largest published investigation of the Discseel procedure. ⁶ It reported significant improvements at one, two, and three years. However, it was a retrospective cohort study with no control group, a single operator (the procedure’s inventor), and approximately 40% dropout by year three. ⁶ ⁷ Its own authors acknowledged the need for a randomized double-blind controlled trial. ⁶ Without a control arm, the observed improvements cannot be separated from placebo effect, regression to the mean, or natural disease course.

Are annular tears always the cause of back pain?

No. Annular tears are common findings even in completely asymptomatic individuals. Research shows they are present in 56% of volunteers with no back pain or sciatica. ¹¹ ¹² While some annular tears are genuinely symptomatic, many are incidental findings that do not require treatment and may resolve spontaneously. ¹³ This raises concern that the Discseel diagnostic process may identify and treat tears that are not the actual source of a patient’s pain.

Can the Discseel procedure cause harm?

While the Pauza et al. (2024) study reported no severe adverse events within its monitored cohort, there is no published long-term histological data on the tissue effects of intradiscal fibrin injection. ⁶ In our clinical experience treating a patient who previously underwent Discseel, we observed hemorrhagic and necrotic disc tissue consistent with an adverse reaction to the injected material. ²⁴ More research, particularly controlled studies with long-term tissue analysis, is needed.

What should I do if my Discseel procedure failed?

If you have undergone the Discseel procedure and continue to experience chronic back or leg pain, you should seek evaluation by a spine specialist who can reassess your condition with updated imaging and determine whether a proven surgical intervention. Such as endoscopic Deuk Laser Disc Repair®, microdiscectomy, or laminectomy is appropriate. Many patients who come to our institute after failed Discseel achieve complete pain relief with the correct procedure. Upload your MRI for a free review.

Sources

Board-Certified Neurosurgeon, Deuk Spine Institute  

Medically reviewed on April 1, 2026 

Medical Disclaimer: This content is for educational purposes only and does not constitute medical advice. Individual results may vary. Always consult with your healthcare provider about your specific condition and treatment options. 

Key Points 

Before diving into the details, here is what you need to know about bone spurs in the spine: 

✓ Bone spurs are extremely common with age: According to UPMC, approximately 80% of men and 60% of women over age 50 have bone spurs, and by age 70 the figure rises to 95% across both sexes. Most are asymptomatic. 

✓ They are a symptom of a deeper problem, not the problem itself: Bone spurs form because the spine is unstable or degenerating. Addressing the underlying disc degeneration or joint deterioration is the key to lasting relief. 

✓ Spinal bone spurs are the most clinically significant: When osteophytes form in the cervical or lumbar spine, they can compress nerve roots and the spinal cord, producing pain, numbness, weakness, and in severe cases, loss of bladder and bowel function. 

✓ Imaging is essential for accurate diagnosis: X-rays detect osteophyte formation, but MRI is required to assess nerve and spinal cord compression, and CT scan is used for detailed bony anatomy assessment before surgery. 

✓ Conservative treatment manages symptoms but does not remove spurs: Physical therapy, medications, and epidural steroid injections provide meaningful relief but do not resolve the structural osteophyte causing compression. 

✓ When surgery is necessary, minimally invasive options outperform open procedures: Deuk Laser Disc Repair® can remove disc-related osteophytes and bone spurs causing nerve compression without fusion, hardware, or extended recovery. 

✓ The global burden of osteoarthritis, the leading driver of bone spurs, is increasing: A 2025 systematic review published in Osteoarthritis and Cartilage confirmed a notable rise in early-onset osteoarthritis driven by obesity and joint injuries, making bone spur formation an increasingly prevalent concern across younger age groups. 

✓ Prevention is possible: Maintaining a healthy weight, exercising regularly, practicing good posture, and eating a diet rich in calcium and vitamin D all reduce the risk of developing symptomatic spinal bone spurs. 

Bone Spurs (Osteophytes): Causes, Symptoms, and Treatment Options 

Bone spurs, known medically as osteophytes, are calcified growths of additional bone that form along the edges of vertebrae, joints, and attachment points of ligaments and tendons. ¹ In the spine, they are among the most common radiographic findings in adults over the age of 50, and they represent the body’s natural response to mechanical stress, joint deterioration, and structural instability. While many bone spurs never cause any symptoms, those that form in the cervical or lumbar spine can compress nerve roots or the spinal cord, producing pain, numbness, weakness, and other neurological symptoms that significantly affect quality of life. 

Understanding what bone spurs are, why they form, how they cause pain, and what treatment options exist is essential for anyone experiencing spine-related symptoms that may have an osteophyte component. 

What Are Bone Spurs? 

Bone spurs are smooth, hard outgrowths of calcified bone that develop on the ends of bones, typically near joints. Despite their name, they are not sharp spikes but rather rounded projections that develop gradually over months or years. They form wherever bone is under sustained mechanical stress, is damaged, or where adjacent soft tissues including cartilage, ligaments, and tendons become inflamed or injured. 

In the spine, osteophytes develop most commonly at two sites: the vertebral body margins, where they are called vertebral osteophytes or spondylophytes, and the facet joints, where they are called facet osteophytes. Both types can encroach on the space available for the spinal cord and exiting nerve roots. According to UPMC, by age 70, approximately 95% of both men and women have bone spurs somewhere in the body. ² The vast majority of these are never symptomatic, but when bone spurs form within the spinal canal or neural foramen, the consequences can be significant. 

Bone spurs themselves are not the root cause of the problem. They are the body’s attempt to compensate for structural instability or damage, essentially a bony scar. Treating bone spurs effectively means understanding and addressing what is driving their formation. 

What Causes Bone Spurs in the Spine? 

Spinal bone spurs develop as a downstream consequence of several interrelated processes, most of which involve degeneration of the discs and joints of the spine. 

Osteoarthritis and Facet Joint Degeneration 

Osteoarthritis is the most frequent underlying cause of spinal bone spurs. ³ In the back of the spine, each vertebra connects to those above and below through paired facet joints. These joints are lined with smooth cartilage that allows the surfaces to glide against each other during spinal movement. As osteoarthritis degrades this cartilage over time, the joint surfaces grind directly against each other. ⁴ The body responds by forming osteophytes at the joint margins in an attempt to redistribute load across the larger surface area created by the new bone. The result is that the facet joints enlarge, and the excess bone can protrude into the spinal canal or neural foramen. 

A 2025 systematic review published in Osteoarthritis and Cartilage, covering epidemiological and therapeutic research from April 2024 to March 2025, confirmed that the global burden of osteoarthritis continues to rise, with a notable increase in early-onset OA driven by obesity and joint injuries. ⁵ This trend means spinal bone spurs are becoming a clinical concern for progressively younger populations. 

Degenerative Disc Disease 

Degenerative disc disease is the wear-related deterioration of the intervertebral discs, the shock-absorbing cushions between vertebrae. As discs lose hydration and height over time, the vertebrae above and below them move closer together, altering the biomechanics of the entire spinal segment. This generates increased stress on the facet joints, the vertebral endplates, and the surrounding ligaments. In response to this mechanical overload and resulting instability, the body produces osteophytes at the vertebral body margins. ⁶ 

A 2024 PMC review of lumbar disc degenerative disease confirmed that signs of disc degeneration, including osteophytes at the vertebral apophyses, are consistently associated with disc height loss and facet joint changes, and that these processes reinforce each other in a progressive degenerative cascade. ⁷ The most commonly affected lumbar levels are L3-L4 and L4-L5 through L5-S1, while in the cervical spine the C5-C6 level exhibits the earliest and most significant degeneration according to StatPearls. ⁸ 

How Enthesophytes Form: The Role of Ligament Instability 

A specific subset of spinal bone spurs, known as enthesophytes, form at the attachments of ligaments to vertebral bone. As the intervertebral discs wear out and lose height, the ligaments that connect the vertebrae together become slack and lose their normal tensioning. The body attempts to compensate for this instability by thickening the ligaments and depositing new bone at their attachment points on the vertebra. The enthesis, the junction between the ligament and the bone, becomes inflamed from this process. Vertebral bone cells deposit new mineral at this inflamed junction, and the enthesis tissue calcifies into a bone spur. 

A 2024 PMC study examining traction spurs in the lumbar spine documented that traction osteophytes form as a direct response to spinal instability, and that their presence on imaging has high specificity for identifying unstable segments in the lumbar spine. ⁹ 

Additional Contributing Factors 

Several other factors can accelerate or contribute to spinal bone spur formation: 

Age: The risk of developing bone spurs increases significantly with age as the cumulative effects of joint use and degeneration accumulate. Most patients with symptomatic spinal stenosis from bone spurs are in their 60s and 70s. 

Obesity: Excess body weight places sustained additional compressive loading on the intervertebral discs and facet joints, accelerating the degenerative processes that lead to osteophyte formation. The 2025 Osteoarthritis and Cartilage systematic review specifically identified obesity as a key driver of early-onset OA. 

Occupational and physical demands: Workers in physically demanding roles involving heavy lifting, repetitive bending, or prolonged vibration exposure, including construction workers, warehouse staff, and truck drivers, develop spinal degeneration and associated bone spurs at earlier ages than sedentary individuals. 

Poor posture: Sustained poor posture alters the distribution of mechanical forces through the spinal segments, creating areas of concentrated stress that accelerate local degeneration and osteophyte formation. 

Spinal deformity: Structural conditions including scoliosis, kyphosis, and spondylolisthesis alter load distribution through the spine, accelerating degeneration and bone spur formation at specific levels. 

Genetics: Genetic predisposition plays a role in both disc health and joint cartilage maintenance, meaning some individuals are at elevated risk regardless of lifestyle or occupation. 

Who Is at Risk of Developing Spinal Bone Spurs? 

Spinal bone spurs are primarily a consequence of aging, meaning that risk increases with every decade of life. They are a near-universal imaging finding in people over age 70. Beyond age, individuals with the following characteristics are at elevated risk: 

• Personal or family history of osteoarthritis 

• Obesity or overweight 

• History of spinal injury or repetitive spinal loading at work 

• Sedentary lifestyle combined with metabolic health issues 

• Scoliosis, kyphosis, or other structural spinal conditions 

• History of chronic poor posture 

It is important to note that imaging evidence of bone spurs does not always correlate with symptoms. Many people with extensive osteophyte formation on X-ray or MRI have no pain or neurological symptoms whatsoever. The clinical significance depends on whether the osteophytes are impinging on neural structures. 

How Bone Spurs Cause Pain 

Bone spurs themselves do not generate pain directly. Pain arises when osteophytes encroach on adjacent structures in three main ways. ¹⁰ 

Nerve Root Compression (Radiculopathy) 

The neural foramen are the openings on each side of the spine through which nerve roots exit the spinal canal and travel to the arms and legs. Bone spurs that form at the vertebral margins or facet joints can narrow these openings, compressing the exiting nerve root. This compression produces radiculopathy: radiating pain, tingling, numbness, and weakness following the distribution of the affected nerve. In the cervical spine this manifests as symptoms traveling into the shoulder, arm, and hand. In the lumbar spine it produces low back pain and sciatica radiating into the buttock, leg, and foot. 

Research from 2024 confirmed that nerve irritation from spinal bone spurs involves both mechanical compression and a chemical inflammatory component, as the inflammatory mediators released during osteophyte formation can sensitize nearby nerves even without direct physical pressure.

Spinal Cord Compression (Myelopathy) 

Bone spurs that grow into the spinal canal itself can compress the spinal cord, producing cervical or thoracic myelopathy. Unlike radiculopathy, which typically affects one limb following a specific nerve pattern, myelopathy produces more diffuse symptoms including bilateral arm or leg weakness, loss of fine motor control, balance and coordination difficulties, and in advanced cases, loss of bladder or bowel function. Cervical myelopathy from osteophyte-driven stenosis is one of the most common causes of spinal cord dysfunction in adults over 55 and requires prompt evaluation to prevent permanent neurological injury. 

Facet Joint Inflammation 

Osteophytes within the facet joints cause the joint surfaces to grind against each other during spinal movement, producing friction, synovial inflammation, and local pain. Facet-mediated pain is typically axial, meaning it is felt primarily in the back or neck itself rather than radiating into the extremities, and it worsens with extension and rotation of the spine. 

Symptoms of Spinal Bone Spurs 

Symptoms vary substantially depending on the location of the osteophytes and which structures they are compressing. 

Cervical Spine (Neck) Bone Spur Symptoms 

• Neck pain or stiffness that worsens with certain movements 

• Numbness, tingling, or a pins-and-needles sensation in one or both arms 

• Radiating pain from the neck into the shoulder, arm, or hand (cervical radiculopathy) 

• Weakness in the upper arms or hands, affecting grip strength or fine motor skills 

• In more severe cases: bilateral arm or leg symptoms, gait problems, or loss of bladder control indicating myelopathy 

• Rarely: difficulty swallowing (dysphagia) if cervical osteophytes grow large enough to impinge on the esophagus 

Lumbar Spine (Lower Back) Bone Spur Symptoms 

• Dull, aching lower back pain that worsens with prolonged standing or walking 

• Radiating pain into the buttock, thigh, leg, or foot (sciatica) 

• Loss of sensation or tingling in the buttocks, thighs, or legs 

• Weakness in one or both legs, making activities like climbing stairs more difficult 

• Neurogenic claudication: leg pain and weakness that develops with walking and relieves with sitting or forward flexion, a hallmark of lumbar spinal stenosis from bone spurs 

Diagnosing Spinal Bone Spurs 

Accurately diagnosing bone spurs and their clinical impact requires a combination of clinical evaluation and advanced imaging. 

Physical and Neurological Examination 

A comprehensive examination evaluates the range of motion of the affected spinal region, reflex responses, motor strength in the extremities, sensation, and balance. Provocative maneuvers such as the Spurling test for cervical radiculopathy and the straight leg raise for lumbar radiculopathy help identify nerve root involvement. The pattern of neurological deficits identified on examination guides the selection of imaging studies. ¹¹ 

X-Ray 

X-rays are the most accessible initial imaging tool for bone spur evaluation. They clearly show osteophyte formation at vertebral margins, disc space narrowing, and facet joint hypertrophy. X-rays are used as the first step to assess the extent of bony degeneration and determine whether more detailed imaging is needed. 

MRI: The Gold Standard 

MRI provides the most complete picture of spinal bone spur impact. It visualizes not only the osteophytes themselves but also the degree of neural foramen narrowing, the extent of spinal cord or nerve root compression, and the condition of the surrounding discs, ligaments, and soft tissues. MRI is essential for surgical planning and for correlating imaging findings with the patient’s specific symptoms. 

CT Scan 

CT scanning provides superior detail for bony anatomy compared to MRI and is particularly useful for characterizing the size, shape, and precise location of bone spurs before surgery. CT myelography, which involves injecting contrast into the spinal fluid, provides even more detailed visualization of nerve root and cord compression in complex cases. 

Non-Surgical Treatment for Bone Spurs 

For the majority of patients with mild to moderate symptoms from spinal bone spurs, conservative management provides meaningful relief. It is important to understand clearly that conservative treatment manages symptoms but does not physically remove or reduce osteophytes. ¹² 

Medications 

Over-the-counter non-steroidal anti-inflammatory drugs (NSAIDs) such as ibuprofen and naproxen reduce both pain and the inflammation associated with nerve compression and facet joint irritation. For more severe pain, prescription nerve medications including gabapentinoids can address neuropathic components of bone spur-related radiculopathy. Short courses of oral corticosteroids may provide additional relief during acute flares. Long-term use of any medication should be supervised by a physician given the potential for side effects. 

Physical Therapy 

A structured physical therapy program is one of the most effective conservative interventions for symptomatic spinal bone spurs. Therapy focuses on strengthening the muscles that support the spine, reducing the mechanical load on degenerating joints, improving flexibility and range of motion, and correcting posture that exacerbates symptoms. A 2025 review in Current Treatment Options in Rheumatology confirmed that physical therapy and orthosis immobilization improve pain and stiffness associated with spinal ligament calcification and enthesophyte formation. ¹³ 

Epidural Steroid Injections 

Epidural steroid injections deliver anti-inflammatory corticosteroids directly to the area of nerve compression adjacent to the bone spur. They can provide temporary but significant reductions in radicular pain, allowing patients to participate more effectively in physical therapy. Their effects are not permanent and do not address the structural osteophyte, but they are a valuable component of multimodal conservative care. 

Activity Modification 

Avoiding activities that consistently aggravate bone spur symptoms, and incorporating ergonomic improvements into daily activities, can reduce the frequency and severity of flares. Walking aids, ergonomic workstations, and supportive sleeping positions are all practical tools for symptom management. 

Surgical Treatment for Bone Spurs 

When conservative management fails to provide adequate relief, when neurological deficits are progressing, or when spinal cord compression from osteophytes requires urgent decompression, surgery becomes necessary. The goal of surgery is decompression: physically removing the bone spur and any associated disc material that is compressing the nerve root or spinal cord. 

The approach chosen matters significantly for both outcomes and recovery. 

Deuk Laser Disc Repair®: Advanced Treatment for Disc-Related Bone Spurs 

For bone spurs that are associated with or arise from disc-level degeneration, including anterior osteophytes, posterior disc-osteophyte complexes, and foraminal bone spurs compressing nerve roots, Deuk Laser Disc Repair® (DLDR) offers the most advanced minimally invasive treatment available. ¹⁴ The procedure treats both the damaged disc tissue driving osteophyte formation and the compressive osteophyte itself, without fusion, without hardware, and without the structural disruption of open surgery. 

How it works: DLDR is performed through a 4 to 7 mm incision using a high-definition endoscopic camera and a precision Holmium:YAG laser. The laser removes the damaged disc tissue, bone spur material, and inflamed annular tissue causing nerve compression, while leaving healthy structures intact. Bones, muscles, and stabilizing joints are not disrupted. 

Key advantages: 

• No fusion: The spine maintains its natural motion permanently, with no risk of adjacent segment disease 

• No hardware: No screws, rods, or cages 

• Outpatient procedure: No hospital stay, walk out within one hour 

• Rapid recovery: Return to daily activities in two to three days, desk work within a week 

• No opioids: No narcotic pain medication required after the procedure 

• Proven results: 99% pain relief for treated pain sources across more than 2,700 procedures with a 0.01% complication rate over 20 years 

Traditional Surgical Options 

For more extensive or complex spinal bone spur presentations, traditional surgical approaches may be required. 

Laminectomy: Removes the lamina to decompress the spinal cord and nerve roots. Frequently combined with fusion due to the instability created by bone removal. Recovery takes 2 to 6 months. 

Foraminotomy: Widens the neural foramen to relieve nerve root compression. May be performed as a standalone procedure or in combination with discectomy. Less structurally disruptive than laminectomy when performed in isolation. 

Spinal fusion (ACDF or TLIF): Appropriate when bone spur formation is associated with significant spinal instability that requires structural correction. Permanently eliminates motion at the fused level and carries a well-documented risk of adjacent segment disease at neighboring levels. Recovery takes 6 to 12 months. 

Preventing Bone Spurs 

While bone spurs caused by the natural aging process cannot always be prevented entirely, there are meaningful steps that reduce the risk and slow the progression of the underlying conditions that cause them. 

• Maintain a healthy weight: Reducing excess body weight decreases the mechanical load on spinal discs and facet joints, directly slowing degenerative processes. 

• Exercise regularly: Weight-bearing exercise strengthens the muscles that support the spine, reduces joint stress, and improves disc nutrition through movement-driven fluid exchange. 

• Practice good posture: Correct posture when sitting, standing, and lifting distributes spinal load evenly across all segments rather than concentrating stress at specific levels. 

• Adopt a bone-healthy diet: Adequate calcium and vitamin D intake supports bone density and reduces the risk of the osteoporotic changes that accelerate spinal degeneration. 

• Use proper lifting mechanics: Lifting with the legs, keeping objects close to the body, and avoiding spinal flexion under load prevents the acute disc injuries that initiate the degenerative cascade leading to osteophytes. 

• Consider physical therapy proactively: Learning correct body mechanics and maintaining a strong posterior chain can significantly delay the onset of symptomatic degenerative changes. 

Frequently Asked Questions 

Sources 

1. https://www.webmd.com/pain-management/what-are-bone-spurs#2-7 

2. https://www.upmc.com/services/orthopaedics/conditions/bone-spurs 

3. https://www.spine-health.com/conditions/arthritis/bone-spurs-osteophytes-and-back-pain  

4. https://www.medicinenet.com/bone_spurs/article.htm  

5. https://www.oarsijournal.com/article/S1063-4584(25)01127-6/fulltext 

6. https://www.spine-health.com/conditions/arthritis/bone-spur-causes  

7. https://pmc.ncbi.nlm.nih.gov/articles/PMC3863659/ 

8. https://www.ncbi.nlm.nih.gov/books/NBK560772/ 

9. https://pmc.ncbi.nlm.nih.gov/articles/PMC11310535/ 

10. https://www.spine-health.com/conditions/arthritis/clinical-symptoms-bone-spurs 

11. https://www.spine-health.com/conditions/arthritis/diagnosis-bone-spurs 

12. https://www.healthline.com/health/bone-spurs-osteophytosis#treatment 

13. https://link.springer.com/article/10.1007/s40674-025-00228-8  

14. https://pubmed.ncbi.nlm.nih.gov/23776754/  

The short answer: regenerative medicine for herniated disc repair is experimental. No regenerative approach has demonstrated reliable structural repair of annular tears in large, controlled clinical trials with long-term follow-up. That does not mean the research is worthless or that these approaches will never mature. It means they have not matured yet, and patients making treatment decisions now deserve to know that distinction.

Medical Disclaimer: This content is for educational purposes only and does not constitute medical advice, diagnosis, or treatment. Individual results may vary. Always consult with a qualified healthcare provider regarding your specific condition and treatment options.

Why Herniated Discs Do Not Heal Without Intervention

To evaluate stem cell therapy for spine conditions accurately, you need to understand what a disc injury actually involves. Each spinal disc has two layers: the annulus fibrosus, which is the tough outer ring, and the nucleus pulposus, the gel-like interior. When a disc is injured, nucleus pulposus material herniates into a tear in the posterior annulus fibrosus. That tear triggers chronic inflammation at the site, and that inflammation does not resolve on its own.

The structural reason discs fail to self-repair is well-documented. The posterior annulus has limited blood supply and limited regenerative capacity. The tear does not close. Over time, small pain nerve fibers grow into the inflamed tissue, a process called neoinnervation, which amplifies pain signals and deepens the chronic pain cycle. Physical therapy, injections, and pain medication can reduce symptoms temporarily. None of them repair the annular tear, remove herniated nucleus pulposus material from the tear, or stop neoinnervation. This is the gap regenerative medicine is attempting to close.

The hypothesis behind stem cell therapy for spine conditions is biologically coherent: if you introduce the right cells or growth factors into the disc environment, you might stimulate the annulus to regenerate and the nucleus to reconstitute. The challenge is that biological plausibility is not the same as clinical evidence. And the clinical evidence is not there yet.

What the Current Trial Data Actually Shows

Stem cell therapy for spine applications has been studied primarily in Phase I and Phase II clinical trials. These are early-phase trials designed to assess safety and generate preliminary efficacy signals. They are not designed to establish that a treatment works reliably across a broad patient population, and they should not be marketed as if they do.

Several specific limitations define where the evidence stands:

• No confirmed structural repair on imaging. Published trials have reported modest pain score improvements in some patients, but MRI follow-up has not consistently shown actual annular healing or nucleus pulposus reconstitution following stem cell injection.
• Follow-up periods are too short. Most published studies track patients for 12 to 24 months. The natural history of chronic disc degeneration plays out over years, and short follow-up cannot establish durable structural benefit.
• No standardized protocols. Cell type, injection technique, cell preparation, and patient selection criteria vary substantially across studies, which makes meaningful comparison difficult and reproducibility uncertain.
• The mechanical pain generator is not removed. Stem cell injections do not extract the nucleus pulposus material already trapped in the posterior annular tear. The primary source of pain remains in place after treatment.
• Not FDA-approved for disc repair. Stem cell preparations are not FDA-approved for the specific indication of intervertebral disc repair. Many commercial offerings operate outside the regulatory framework that governs approved medical procedures.

PRP (platelet-rich plasma) injections for disc pain follow a similar evidence profile. PRP may reduce intradiscal inflammation temporarily by introducing growth factors into the disc environment. For some patients, that temporary reduction can provide meaningful short-term relief. But it does not repair the annular tear, does not remove herniated nucleus pulposus material, and has not demonstrated durable structural outcomes in clinical trials.

The Regulatory Gap Most Patients Are Not Told About

One distinction that rarely comes up in consultations about stem cell therapy for spine conditions is the regulatory one. Deuk Laser Disc Repair® is fully FDA-compliant, using only FDA-approved equipment, supplies, and medication in every procedure. That means the instruments, the pharmacologic agents, and the procedure itself have all gone through the regulatory process designed to establish safety and appropriate clinical application.

Many commercial stem cell therapy offerings do not operate under the same framework. The FDA has issued guidance and enforcement actions against clinics offering stem cell injections using preparations that have not received approval for specific indications. Before any regenerative treatment, patients should ask: which specific FDA-approved designation covers the cells or preparations being injected, and for what indication? If the answer is vague or the provider deflects, that is clinically relevant information.

I want to be fair here. Not every clinic offering regenerative therapies is operating outside appropriate boundaries, and some are conducting legitimate research under proper IRB oversight. But the marketing environment has significantly outpaced the evidence, and patients who are told that stem cells will regrow their disc, repair their annular tear, or eliminate chronic back pain are receiving claims the current literature does not support.

What Endoscopic Disc Repair Does That Regenerative Approaches Cannot

The fundamental clinical limitation shared by all regenerative medicine approaches for herniated disc pain is that they are additive. They introduce something into the disc environment and rely on the disc to respond. They do not remove anything. The herniated nucleus pulposus material trapped in the posterior annular tear, the primary mechanical pain generator, remains in place after a stem cell injection or PRP treatment. The inflammation it sustains continues.

Deuk Laser Disc Repair® works through a different mechanism. Through a 4mm or 7mm incision, an endoscopic instrument accesses the affected disc directly. The herniated nucleus pulposus material trapped in the posterior annular tear is physically removed. The inflammatory tissue within the tear is debrided. Once the mechanical pain generator is extracted and the tear is cleaned, the annulus heals naturally over 9 to 12 months, without cadaver bone, metal, plastic, or hardware placed in the spine.

This distinction matters because injecting biologic material into a disc that still contains herniated nucleus pulposus material trapped in an annular tear is attempting to repair a structure around an obstruction that has not been cleared. I think that framing is worth sitting with. The tear cannot heal while the material causing the inflammation is still present, regardless of what regenerative agents are introduced around it.

Deuk Laser Disc Repair® has been peer-reviewed and published more than 10 times in medical literature. The published data shows patients report 99% elimination of pain at 13 months post-treatment. That follow-up timepoint matters specifically because 13 months reflects outcomes after the natural annular healing process has completed, not just immediate post-procedure relief. The procedure has a 0.01% complication rate and a 0% infection rate.

Why Treating Only the Disc Leaves Most Patients Partially Treated

One reason chronic back pain resists any single treatment, regenerative or otherwise, is that most patients have more than one active pain generator. Based on clinical experience with over 250,000 patients treated at Deuk Spine Institute since 2004, the average chronic back pain patient has five concurrent pain generators. Treating one while the others remain active produces partial improvement at best. I see this regularly in patients who have had some benefit from a procedure but report that some pain persists, and on examination we identify two or three additional untreated sources.

Through clinical practice and diagnostic refinement using the Deuk Spine Exam®, the sources of chronic back pain have been categorized by frequency:

• Disc injuries account for approximately 85% of chronic back pain at levels L4-L5, L5-S1, L3-L4, and L2-L3
• Facet joint arthritis is the second most common cause, occurring at the same vertebral levels
• Sacroiliac joint pain and piriformis syndrome together account for roughly 10% of chronic back pain cases
• Vertebral fractures represent less than 0.5% of chronic back pain

When all pain generators are accurately identified and treated with the appropriate procedure, over 95% of chronic back pain cases are curable. Deuk Plasma Rhizotomy® addresses facet joint arthritis, sacroiliac joint pain, and arthritic joint pain through a 30-minute outpatient procedure that permanently treats the pain-mediating nerves inside the affected joint. Combined with Deuk Laser Disc Repair® for the disc component, these two procedures address the full spectrum of common chronic back pain sources.

Stem cell therapy for spine conditions and regenerative medicine for herniated disc pain cannot treat facet joint arthritis, sacroiliac joint pain, or piriformis syndrome. They target the disc only, and at the current level of evidence, have not demonstrated reliable structural repair even of the disc pathology they are aimed at.

A Fair Assessment for Patients Weighing Their Options

Regenerative medicine is a legitimate field of active research. Some of what is being studied today will likely have a clinical role in the future, and I would not dismiss that possibility. What I would push back on is the gap between where the evidence currently stands and how these treatments are being marketed to patients who are in pain and looking for answers.

Three questions help separate evidence-based claims from marketing: What phase of clinical trial supports this treatment? What does post-treatment MRI show regarding structural disc repair? Is this preparation FDA-approved for the specific indication being treated? For patients who have been told that regenerative approaches are their best option before surgery, a free MRI review can clarify whether an endoscopic procedure with an established clinical record applies to their specific pathology.

The goal is not to steer anyone away from all alternatives to surgery. The goal is to make sure patients have accurate information when they make a decision that affects their spine, their quality of life, and in some cases their ability to work and move without pain.

Medical Disclaimer: This content is for educational purposes only and does not constitute medical advice, diagnosis, or treatment. Individual results may vary. Always consult with a qualified healthcare provider regarding your specific condition and treatment options.