\n
Top Deep Brain Stimulation Specialists in the United States for Movement Disorders
\n<\/p>\n
What defines the expertise of Deep brain stimulation specialists USA? These are medical professionals who focus exclusively on the surgical and programming aspects of deep brain stimulation (DBS) therapy for conditions like Parkinson\u2019s disease and essential tremor. Their work involves precise electrode placement and postoperative device adjustment, ensuring each patient\u2019s stimulation settings are individually optimized for symptom control. By consulting such a specialist, patients gain access to a dedicated DBS care pathway<\/strong> that spans from candidacy evaluation to long-term follow-up management.<\/p>\n When you begin selecting a neuromodulation expert for movement disorders<\/strong>, the search across the USA often feels overwhelming, yet it narrows dramatically once you look past hospital branding. You want a deep brain stimulation specialist USA<\/strong> who has personally managed hundreds of Parkinson\u2019s or dystonia cases, not just someone who reads imaging reports. In my own journey, I learned to ask each candidate how they handle intraoperative microelectrode recording when the patient\u2019s tremor suddenly changes\u2014their answer revealed more than any brochure. I also checked whether their neurologist and neurosurgeon operate as one collaborative team, because DBS programming depends on that handoff. Ultimately, you are trusting someone to adjust a device that alters your daily movements, so prioritize clinicians who openly discuss failure rates and revision strategies, ensuring they treat you as a long-term partner, not a procedure. <\/p>\n Leading DBS practitioners in the USA are distinguished by board certification in both neurology and a subspecialty fellowship in movement disorders, often complemented by an additional stereotactic and functional neurosurgery credential for surgical colleagues. A robust track record of peer-reviewed publications on DBS targeting and programming, alongside a high annual volume of DBS implantations and long-term follow-up, separates true experts. Membership in the Movement Disorder Society or the American Society for Stereotactic and Functional Neurosurgery signals ongoing, practical mastery. These practitioners also hold advanced certification in intraoperative microelectrode recording interpretation and postoperative device programming, ensuring precise lead placement and optimized outcomes.<\/p>\n What single credential most reliably signals a leading DBS practitioner?<\/strong> Behind every successful deep brain stimulation (DBS) procedure in the USA is a multidisciplinary team behind surgical precision<\/strong>, not a single surgeon. This team typically includes a movement disorder neurologist, a stereotactic neurosurgeon, a neuropsychologist, and a dedicated DBS nurse coordinator. The neurologist maps symptom targets and manages medication adjustments, while the neurosurgeon uses advanced intraoperative imaging and microelectrode recording to place leads within a millimeter of the intended nucleus. The neuropsychologist evaluates cognitive risks before surgery and monitors cognition during awake phases, and the nurse coordinate ensures consistent follow-up for programming. This integrated structure minimizes targeting errors and complication rates by cross-verifying every surgical step.<\/p>\n How does the multidisciplinary team verify lead placement during surgery?<\/strong> The team uses real-time feedback from microelectrode recordings, patient responses during awake testing, and fusion of preoperative MRI with postoperative CT scans, all reviewed collaboratively before closing the incision.<\/p>\n In electrode placement, program volume directly correlates with spatial accuracy<\/strong>. A specialist who programs hundreds of leads annually develops a refined mental map of the subthalamic nucleus and globus pallidus, recognizing subtle impedance shifts and side-effect thresholds that low-volume practitioners miss. This experience reduces the need for repeated surgical revisions by enabling precise adjustment of stimulation fields to the motor homunculus. High-volume experts also anticipate postoperative brain shift, adjusting contact selection to avoid capsular or thalamic spillover. Conversely, low program volume leads to conservative settings that under-treat tremor or induce dysarthria. The practical result: fewer clinic visits, faster symptom control, and longer battery life.<\/p>\n Across the United States, top regional hubs for advanced brain pacemaker therapy<\/strong> cluster where neurology and precision surgery intersect. In the Midwest, Cleveland and Rochester anchor care, with specialists who fine-tune stimulation parameters over months, not just during the operating room. On the West Coast, San Francisco and Seattle draw patients seeking second opinions on complex dystonia or refractory depression. The Southeast centers around Miami and Atlanta, where multidisciplinary teams combine movement disorder clinics with intraoperative imaging. For someone living in rural Texas, flying to Houston means accessing a hub where deep brain stimulation specialists USA<\/strong> routinely adjust leads for tremor that medication no longer touches. Each hub maintains a distinct referral network, so your local neurologist often knows exactly which city handles your specific electrode placement challenge.<\/p>\n The East Coast hosts several Centers of Excellence for deep brain stimulation<\/strong>, concentrated in academic medical hubs from Boston to Baltimore. These centers pair experienced neurosurgeons with dedicated movement disorder neurologists who handle programming adjustments and battery management. Patients typically undergo a multidisciplinary evaluation, including neuropsychological testing and imaging, before surgery. Post-operative support at these centers often includes same-day programming access and 24-hour on-call coverage for stimulation-related issues. For complex cases, such as dystonia or obsessive-compulsive disorder, these East Coast hubs maintain specialized clinics that track long-term outcomes, offering a coordinated pathway for both initial implantation and ongoing follow-up care without requiring travel across state lines.<\/p>\n Midwest institutions are transforming advanced brain pacemaker therapy through adaptive stimulation protocols<\/strong> that respond in real time to neural feedback. Cleveland Clinic leads with closed-loop systems that adjust voltage based on beta-wave activity, reducing tremor fluctuations in Parkinson\u2019s patients. Mayo Clinic in Rochester pairs adaptive algorithms with electrocorticography to fine-tune stimulation for dystonia and epilepsy, minimizing side effects during daily tasks. The University of Michigan\u2019s movement disorder clinic offers personalized recalibration sessions, using wearable sensors to refine adaptive settings between visits. Patients seeking cutting-edge precision should prioritize these hubs for their hands-on, data-driven approach to brain pacemaker therapy.<\/p>\n For patients seeking cutting-edge access, West Coast programs leading clinical trials<\/strong> in deep brain stimulation offer direct pipelines to experimental therapies. At Stanford, specialists are actively enrolling for adaptive DBS trials that adjust stimulation in real time to movement or mood biomarkers, often bypassing traditional clinic-based programming sessions. UCSF pioneers closed-loop systems for depression, targeting personalized neural signatures through subcallosal cingulate electrodes; their intake team can screen candidates from any state within weeks, though travel for follow-up visits is mandatory. Oregon Health & Science University runs early-phase protocols for treatment-resistant OCD and Tourette syndrome, prioritizing surgical candidacy over waiting-list length. These hubs frequently collaborate with Kaiser Permanente\u2019s regional network, allowing remote symptom tracking between in-person calibration visits\u2014a practical advantage for out-of-state participants.<\/p>\n Across the South and Southwest, emerging dedicated DBS clinics are concentrating on post-operative programming and adaptive stimulation<\/strong> within established neurosurgery departments. In Houston and Dallas, specialized teams offer same-day electrode interrogation, while Phoenix and Austin centers emphasize remote programming for vast rural catchments. These clinics unite movement disorder neurologists, neuropsychologists, and device engineers under one roof, drastically shortening wait times for battery checks and lead adjustments. Unlike general neurology practices, they provide protocol-driven troubleshooting for gait freezing or dyskinesia, using imaging-guided re-programming that matches the region\u2019s dispersed patient population.<\/p>\n Dedicated DBS clinics in the South and Southwest now deliver rapid, imaging-focused programming and perioperative care for patients traveling from multi-state radii.<\/p><\/blockquote>\n When evaluating a Deep brain stimulation specialist in the USA<\/strong>, the single most decisive factor is their hands-on history with your *exact* condition\u2014not just DBS in general. A surgeon who excels at treating Parkinson\u2019s tremor may lack the nuanced targeting required for dystonia or obsessive-compulsive disorder. Ask directly how many procedures they\u2019ve performed for your specific diagnosis, and probe for their management of atypical symptoms like gait freezing or cognitive side effects. <\/p>\n Experience is only relevant if it mirrors your neurological signature; a specialist\u2019s confidence should be measured in condition-matched case volume, not total implants.<\/p><\/blockquote>\n Also, verify their follow-up protocol for your situation\u2014programming adjustments for dystonia differ vastly from those for essential tremor. Finally, request before-and-after outcomes from patients with your identical phenotype, ensuring the specialist can articulate why your presentation warrants a distinct electrode trajectory or stimulation paradigm.<\/p>\n For Parkinson\u2019s disease, the subthalamic nucleus (STN) targeting precision<\/strong> hinges on a specialist\u2019s ability to interpret microelectrode recordings and intraoperative MRI in real time. A movement disorder neurologist paired with a functional neurosurgeon determines STN coordinates via atlas-based mapping, then refines them through patient-specific tremor or rigidity suppression during awake testing. Centers with high-volume PD cohorts demonstrate more consistent lead placement within the STN\u2019s sensorimotor region, reducing stimulation-induced speech or balance side effects. Specialists also adjust trajectory to avoid the internal capsule and red nucleus, relying on prior surgical outcomes for individualized targeting.<\/p>\n For essential tremor patients, Ventral Intermediate Nucleus precision targeting<\/strong> separates competent DBS surgeons from true specialists. Experts refine lead placement using microelectrode recording to identify kinesthetic cells that fire in synchrony with tremor, then test intraoperative stimulation for paresthesia or dysarthria side effects. A skilled essential tremor specialist accounts for thalamic atrophy and ventricle shift on 3T MRI, adjusting coordinates accordingly. In the USA, this expertise directly determines whether patients achieve 80\u201390% tremor suppression or require lead revision. The logical sequence is: <\/p>\n Precision here minimizes rebound tremor and speech complications, making surgeon-tracked VIM outcomes a decisive patient selection criterion.<\/p>\n For patients with refractory dystonia, Globus Pallidus Internus (GPi) stimulation programs<\/strong> represent the most refined surgical pathway available in the USA. Leading centers distinguish themselves by targeting the sensorimotor territory of the GPi with microelectrode recording and intraoperative testing to maximize therapeutic benefit while minimizing dysarthria or bradykinesia. Experienced specialists tailor stimulation parameters\u2014frequency, pulse width, and contact selection\u2014to the specific dystonia phenotype, whether cervical, generalized, or task-specific. Programs with high volume consistently report meaningful functional improvement within three to six months, but success hinges on the surgical team\u2019s familiarity with dystonia-specific targeting pitfalls, such as anatomical variability in the GPi\u2019s somatotopic arrangement.<\/p>\n Question: What is the most critical factor in GPi stimulation for dystonia?<\/strong> The precision of electrode placement within the posteroventral GPi, confirmed by intraoperative microelectrode recordings and postoperative imaging, because even a 2-millimeter deviation drastically reduces efficacy and increases side effects.<\/p>\n For obsessive-compulsive disorder and depression, psychiatric DBS specialists in the USA<\/strong> focus on FDA-approved targets like the ventral capsule\/ventral striatum (VC\/VS) for OCD and the subcallosal cingulate (SCC) for treatment-resistant depression. When evaluating a center, ask how many patients they have implanted for these specific indications, as experience directly impacts electrode placement accuracy and programming efficiency. Verify whether the team includes a dedicated psychiatrist who manages stimulation adjustments alongside medication titration, since post-operative care differs sharply from movement disorder protocols. *Response to DBS for depression can take months of iterative programming, so inquire about follow-up frequency and whether the clinic offers remote troubleshooting between visits.* Also, confirm the clinic tracks long-term outcomes using standardized scales like the Yale-Brown Obsessive Compulsive Scale or Montgomery-\u00c5sberg Depression Rating Scale, rather than relying on anecdotal success.<\/p>\n In the USA, deep brain stimulation specialists anchor treatment planning in a rigorous, multidisciplinary screening process that prioritizes patient selection criteria<\/strong> above all else. They begin by confirming a precise diagnosis\u2014typically Parkinson\u2019s disease, essential tremor, or dystonia\u2014while aggressively ruling out atypical parkinsonism, which responds poorly to DBS. The treatment planning<\/strong> phase involves high-resolution 3T MRI and CT fusion to map the subthalamic nucleus or globus pallidus internus, yet candidacy hinges on neuropsychological evaluation<\/strong> to exclude significant dementia or uncontrolled psychiatric illness. Specialists also assess medication responsiveness<\/mark> via a levodopa challenge, ensuring that motor fluctuations are indeed DBS-tractable. Age alone is not a barrier, but frailty, surgical risk, and unrealistic expectations are red flags. Ultimately, each plan is personalized, with intraoperative microelectrode recording confirming target accuracy before implanting the pulse generator.<\/p>\n Before DBS surgery, neuropsychological evaluations are the definitive gatekeeper<\/strong> for candidacy, not a mere formality. These assessments measure memory, executive function, and emotional stability to predict how your brain will respond to electrode placement. Specialists in the USA use results to identify subtle cognitive vulnerabilities that could worsen post-operatively, such as mild dementia or untreated depression. If the evaluation reveals significant risks, your DBS team may delay surgery, adjust stimulation targets, or recommend psychiatric stabilization first. The process typically takes 3\u20135 hours and includes interviews plus standardized tests. You must complete this evaluation within six months of your surgery date\u2014older results may be rejected by the surgical center.<\/p>\n When you\u2019re consulting with deep brain stimulation specialists in the USA, MRI and CT fusion techniques<\/strong> are the backbone of surgical planning. Your team fuses a high-resolution MRI\u2014which shows soft tissue targets like the subthalamic nucleus\u2014with a same-day CT to correct for brain shift. This frameless stereotactic fusion<\/mark> gives millimeter-accurate coordinates, so the electrode path avoids blood vessels. Many US centers also use 7-Tesla MRI for sharper contrast, then overlay the CT for bone landmarks. The result is a safer, more precise trajectory\u2014cutting down on follow-up adjustments and improving symptom control from day one.<\/p>\n Assessing medication-refractory cases for candidacy begins with a documented trial of optimal pharmacotherapy, confirmed by the specialist, before any surgical discussion. For movement disorders like Parkinson\u2019s, candidacy requires a clear levodopa response with disabling off-periods unresponsive to dosage adjustments, while for dystonia, a failed botulinum toxin trial is mandatory. Psychiatric evaluation is essential to rule out untreated depression or psychosis that would contraindicate DBS. Neuropsychological testing confirms cognitive capacity to consent and tolerate the procedure. Medication-refractory candidacy evaluation<\/strong> must also verify the patient\u2019s symptoms are not caused by non-neurological factors, such as medication interactions or metabolic issues, ensuring the failure is genuine and surgical targets are viable.<\/p>\n When referring for deep brain stimulation (DBS), age alone is rarely disqualifying, but it interacts sharply with comorbidity burden to define candidacy. Older adults with well-controlled hypertension or mild diabetes often proceed safely, whereas frailty, significant cognitive decline, or uncontrolled cardiac disease\u2014regardless of chronological age\u2014elevate perioperative and post-stimulation risks, prompting specialists to delay or deny surgery. Conversely, younger patients with multiple autoimmune or pulmonary comorbidities may face stricter scrutiny than a fit 75-year-old. Comorbidity-based risk stratification rather than age cutoffs<\/strong> drives referral decisions, with specialists prioritizing preserved executive function, cardiovascular stability, and absence of untreated depression. Referral timing thus hinges on optimizing reversible conditions first, then reassessing motor symptom severity against cumulative non-neurological risk, ensuring DBS is reserved for those whose anticipated benefit clearly outweighs systemic vulnerability.<\/p>\n Age and comorbidity considerations in referral decisions require individualized risk-benefit analysis, favoring functional status and organ system resilience over arbitrary age thresholds.<\/p><\/blockquote>\n For deep brain stimulation specialists in the USA, technological proficiency now demands mastery of directional leads, closed-loop adaptive algorithms, and real-time local field potential monitoring. You must interpret sensing data from systems like Medtronic\u2019s Percept PC or Abbott\u2019s Infinity, adjusting stimulation parameters based on patient-specific neural biomarkers rather than relying solely on empirical titration. Practically, this means becoming fluent in each platform\u2019s software for programming segmented contacts, managing interleaved pulses, and troubleshooting impedance fluctuations or hardware artifacts that mimic symptom recurrence. Proficiency is demonstrated when you can switch between constant-current and voltage-controlled modes without recalibrating therapeutic thresholds.<\/strong> Q: How do you verify a closed-loop system is responding correctly? A: Check the sensed beta-band amplitude trend against the patient\u2019s reported tremors in real time, then adjust the feedback gain incrementally until symptom suppression aligns with the recorded neural signal.<\/p>\n American DBS specialists apply directional lead programming for steered current<\/strong> to shape the electric field toward targeted subregions, such as the sensorimotor zona incerta, while sparing adjacent capsular or thalamic fibers. In practice, this requires intraoperative testing of each segmented contact\u2019s cathodal\/anodal combinations using monopolar review, then postoperatively adjusting current steering increments\u2014often in 0.1 mA steps\u2014based on side-effect thresholds and symptom relief. Experts also use imaging-guided software to simulate field orientation from postoperative CT\/MRI fusion. <\/p>\n Q: How do US specialists verify that steered current reaches the intended target?<\/strong> For patients with treatment-resistant conditions, closed-loop DBS programming<\/strong> represents a paradigm shift from static stimulation to real-time, neurophysiology-driven adjustments. Specialists in the USA now leverage local field potentials to automatically modulate parameters, requiring a unique adaptive skill set. This proficiency involves interpreting real-time biomarkers, adjusting stimulation amplitude within therapeutic windows, and troubleshooting signal artifacts during daily activities. A specialist\u2019s true expertise emerges when balancing automated algorithms against subjective patient-reported symptoms without over-relying on default settings.<\/em> Key steps for mastering adaptive programming include:<\/p>\n In the U.S., deep brain stimulation (DBS) specialists familiar with MRI-conditional devices are essential for managing patients who require postoperative imaging. These experts verify device-specific model parameters, such as Medtronic, Abbott, or Boston Scientific leads, before scanning, ensuring the MRI is performed under strict SAR and gradient limits. They also program the stimulator into a safe \u201cMRI mode\u201d and confirm the absence of fractured leads. Selecting an MRI-conditional DBS specialist in the USA<\/strong> reduces the risk of tissue heating or device malfunction during a scan. However, their expertise extends beyond imaging protocols, as they must also interpret incidental findings while the patient\u2019s stimulation settings remain completely stable.<\/em> <\/p>\n Q: Why is a specialist familiar with MRI-conditional devices critical for DBS patients?<\/strong> For patients with implanted deep brain stimulation systems, remote programming capabilities<\/strong> reduce the need for in-clinic adjustments, allowing specialists to fine-tune stimulation parameters via secure telehealth platforms. Follow-up sessions typically begin with a connectivity check, then proceed to impedance testing and symptom-based algorithm adjustments, all conducted through encrypted video interfaces. This workflow enables clinicians to modify pulse width, frequency, and amplitude in real time while observing patient responses at home. Telemedicine follow-up also supports troubleshooting of battery status or paresthesia complaints without travel, though initial programming and post-implant verification still require physical presence. Remote programming<\/mark> is especially valuable for rural patients, as it sustains continuity of care between quarterly visits.<\/p>\n Navigating the referral process from first visit to surgery with a US deep brain stimulation specialist begins with securing a comprehensive movement disorder evaluation, often requiring your neurologist to send imaging and medication response records. During the initial consultation, the specialist confirms candidacy by assessing cognitive status and symptom types, then coordinates a multidisciplinary team\u2014including neuropsychologists and neurosurgeons\u2014for pre-surgical testing. Referral coordination for DBS surgery<\/strong> typically involves prior authorization from your insurer, which the specialist\u2019s office guides you through, ensuring all documentation supports medical necessity. From there, you undergo baseline neuropsychological and MRI mapping, followed by a surgical date set within weeks. Throughout, the specialist\u2019s nurse navigator acts as your single contact, streamlining appointments, medication adjustments, and post-op programming sessions, so timely DBS surgical access<\/strong> remains seamless from your initial office visit through the operating room.<\/p>\n Building a comprehensive referral packet for review by DBS specialists in the USA begins with consolidating every prior neurology consultation, including formal movement disorder evaluations and prior medication trials with documented responses. Assembling imaging files on a secure digital format<\/strong>\u2014such as a CD or encrypted upload\u2014is critical, since surgeons require MRI sequences tailored to stereotactic targeting. Organize a chronological symptom timeline, noting onset, progression, and both motor and non-motor fluctuations. Include current cognitive and psychiatric assessments, as these directly influence candidacy. Even a single missing neuropsychological report can delay surgical clearance by weeks.<\/em> Follow this sequence: <\/p>\n Finally, verify that every document includes patient identifiers and dates to prevent administrative rejection during the specialist\u2019s initial review.<\/p>\n When your top deep brain stimulation candidates sit hundreds of miles away, telehealth consultations with out-of-state centers<\/strong> compress the distance into a single video call, letting you interview the surgical team, review your MRI remotely, and confirm whether your case fits their protocol before burning a single travel day. You\u2019ll still need to ship imaging files ahead, test your camera connection, and prepare a list of medication timing questions, because the specialist can\u2019t physically examine your tremor or gait\u2014so be ready to demonstrate movements on cue. These virtual pre-op sessions also let you map the exact sequence: which local neurologist will handle adjustments, who coordinates insurance pre-authorization, and what follow-up scans the center requires once you arrive. Use the call to clarify who owns your care between visits\u2014this prevents gaps that could delay your surgery date.<\/p>\n Telehealth lets you pre-vet an out-of-state DBS team, align imaging, and lock your surgical timeline before traveling\u2014turning a daunting referral into a planned, two-stage process.<\/p><\/blockquote>\n For Deep brain stimulation (DBS) candidates, insurance authorization and prior authorization advocates<\/strong> serve as your dedicated bridge between the neurosurgeon\u2019s office and your payer. These specialists proactively compile the clinical evidence\u2014MRI results, medication trials, and psychiatric clearance\u2014required to justify DBS surgery. They negotiate directly with insurers, appeal denied claims, and expedite urgent timelines so your surgical date isn\u2019t lost to administrative backlog. By tracking every form and follow-up call, they eliminate the burden of you navigating complex policy language alone. Their goal is to convert your surgeon\u2019s recommendation into a confirmed, covered procedure, reducing your risk of unexpected out-of-pocket costs.<\/p>\nSelecting a Neuromodulation Expert for Movement Disorders<\/h2>\n
Credentials That Distinguish Leading DBS Practitioners<\/h3>\n
<\/p>\n
A fellowship in movement disorders from an accredited academic center, combined with a documented caseload exceeding 100 DBS procedures, is the most reliable marker of genuine expertise.<\/p>\nMultidisciplinary Teams Behind Surgical Precision<\/h3>\n
Why Program Volume Matters in Electrode Placement<\/h3>\n
\n
Top Regional Hubs for Advanced Brain Pacemaker Therapy<\/h2>\n
Centers of Excellence on the East Coast<\/h3>\n
Midwest Institutions Pioneering Adaptive Stimulation<\/h3>\n
West Coast Programs Leading Clinical Trials<\/h3>\n
Emerging Dedicated Clinics in the South and Southwest<\/h3>\n
Evaluating Experience with Specific Conditions<\/h2>\n
Parkinson\u2019s Disease Specialists and Subthalamic Nucleus Targeting<\/h3>\n
<\/p>\n
\n
Essential Tremor Experts and Ventral Intermediate Nucleus Precision<\/h3>\n
\n
Dystonia Programs Focusing on Globus Pallidus Internus Stimulation<\/h3>\n
Obsessive-Compulsive Disorder and Depression Specialists in Psychiatric DBS<\/h3>\n
Treatment Planning and Patient Selection Criteria<\/h2>\n
Neuropsychological Evaluations Before Surgery<\/h3>\n
Advanced Imaging Protocols: MRI and CT Fusion Techniques<\/h3>\n
Assessing Medication-Refractory Cases for Candidacy<\/h3>\n
\n
Age and Comorbidity Considerations in Referral Decisions<\/h3>\n
Technological Proficiency in Current Stimulation Systems<\/h2>\n
Expertise with Directional Leads for Steered Current<\/h3>\n
\nA: They compare clinically evoked responses (e.g., rigidity reduction versus paresthesia onset) against modeled field spread, then fine-tune segmented contact selection to maximize therapeutic window.<\/p>\nClosed-Loop Systems and Adaptive Programming Skills<\/h3>\n
\n
Specialists Familiar with MRI-Conditional Devices<\/h3>\n
\nA: They ensure scan safety by confirming lead integrity, adjusting stimulator settings, and following vendor-specific conditional guidelines, preventing serious neurological injury during the MRI.<\/p>\nRemote Programming Capabilities and Telemedicine Follow-Up<\/h3>\n
<\/p>\n
\n
Navigating the Referral Process from First Visit to Surgery<\/h2>\n
<\/p>\n
Building a Comprehensive Referral Packet for Review<\/h3>\n
\n
Telehealth Consultations with Out-of-State Centers<\/h3>\n
Insurance Authorization and Prior Authorization Advocates<\/h3>\n
\n