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510(k) Data Aggregation
(265 days)
FG Bone Graft M is intended for use as a bone grafting material to fill, augment or reconstruct periodontal or oral/maxillofacial defects.
These defects may be surgically created osseous defects or osseous defects created from traumatic injury to the bone.
Typical uses include:
- Periodontal/Intrabony defects filling
- Ridge augmentation
- Implant preparation, placement in extraction sites
- Sinus lifts
- Cystic cavities filling
The Synthetic Bone Substitute, FG Bone Graft M, is a microporous and macroporous biphasic calcium phosphate ceramic consisting of 60% Hydroxyapatite (HA) and 40% beta-Tricalcium Phosphate (β-TCP).
The synthetic bone substitute is presented in a porous form required for the conduction of precursor cells to the defect site to facilitate new bone growth.
This product is provided sterile for single patient use.
The synthetic bone substitute is progressively replaced by new bone according to the remodeling process.
N/A
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(267 days)
FG Bone Graft B is recommended for:
- Augmentation or reconstructive treatment of the alveolar ridge.
- Filling of infrabony periodontal defects.
- Filling of defects after root resection, apicoectomy, and cystectomy.
- Filling of extraction sockets to enhance preservation of the alveolar ridge.
- Elevation of the maxillary sinus floor.
- Filling of periodontal defects in conjunction with products intended for Guided Tissue Regeneration (GTR) and Guided Bone Regeneration (GBR).
- Filling of peri-implant defects in conjunction with products intended for Guided Bone Regeneration (GBR).
FG Bone Graft B is a sterile, synthetic, multi-porous biocompatible ceramic matrix in granular form for filling bone defects. The material with microporous structure supports rapid ossification with local bone. With its phase purity of >= 99%, the ceramic material complies with US standard specification ASTM F 1088-04. The validated manufacturing process guarantees batch conformity and reproducibility.
The FDA 510(k) clearance letter for FG Bone Graft B indicates that the device is substantially equivalent to a predicate device (CERASORB M DENTAL). The clearance letter references non-clinical tests performed to demonstrate this equivalence, focusing on chemical composition, physical properties, and performance in vivo.
Here's a breakdown of the acceptance criteria and the study that proves the device meets them, based on the provided text:
1. Table of Acceptance Criteria and Reported Device Performance
| Description | Acceptance Criteria | Reported Device Performance and Results |
|---|---|---|
| Chemical Composition | ||
| Complete chemical composition, summing to 100% by mass, including all additives and the Chemical Abstracts Service (CAS®) registry number of all components. | Consisting of ≥ 99% beta-Tricalcium Phosphate (ß-TCP) | 100% |
| Description of the composition, including an elemental analysis, identifying the trace impurities. | Conc.(ppm) Pb ≤30, As ≤3, Cd ≤5, Hg ≤5 | Conc.(ppm) Pb 0, As 0.33, Cd 0.09, Hg 0 |
| Physical Properties | ||
| SEM micrographs, showing particle size, shape, and porosity. | The product behaves like a porous structure and is similar to the reference product. | The SEM result showed the surface characteristic of the TCP sample (FG Bone Graft B) is similar in structure to the predicate device (Cerasorb) via 600X, 1000X, and 3000x SEM photos. |
| A plot of the resorption of your device versus time showing the time for total clearance or integration under a representative model. | Similar trend changes to the comparison products. | ~90% degraded by 12 weeks |
| Healing time, i.e., the earliest time at which implant loading may be successfully attempted. | N/A (Not explicitly defined as a numerical criterion, but evaluated in vivo). | The defect fill rate was observed to be 21.5% at 4 weeks, increasing to 26.2% by 8 weeks, and reaching up to 33.9% by 12 weeks. (This implies a healing progression, though not a specific "loading time" metric). |
| Phase purity, i.e., the relative mass percentages of crystalline and amorphous phases (%). | Similar trend changes to the comparison products. | 100% β-TCP |
| Calcium to phosphorus ratio (Ca/P). | Ca/P ratio >1.5 | Ca/P ratio: 1.89 - 1.95 |
| Volumetric porosity (% void space). | The porosity is approximately 70% ± 5% or similar to the reference product. | Volumetric porosity: 68.3% |
| Particle size distribution plot (μ). | The mean value of the particle size distribution is within the declared specifications, or the median and mode are within the specification range. | 500-1000μm |
| pH. | Similar trend changes to the comparison products. | ~7.9 over 7 days |
| Performance In Vivo | ||
| New bone formation. | New bone formation performance comparable to the predicate. | New bone formation increased over time at comparable rates to the predicate. |
| Material degradation (residual material). | Material degradation rates comparable to the predicate. | FG Bone Graft B degraded at comparable rates to the predicate over 12 weeks. |
| Inflammatory response. | Minimal to mild inflammatory response, no significant adverse reactions. | Minimal to mild inflammatory response, with no significant adverse reactions. |
2. Sample Size Used for the Test Set and Data Provenance
- Sample size for the test set: The document states that the in vivo study used a "Beagle dog" model, and the animals were "divided into groups: test group (FG Bone Graft B), positive control group (Cerasorb, a commercial β-TCP), and a negative control (empty defect)." However, the exact number of animals in each group or total animal count is not specified in the provided text.
- Data provenance: The study was a prospective in vivo animal study performed on Beagle dogs. The location/country of origin of the study is not explicitly stated in the provided text, but the submitter "Full Golden Biotech Co., Ltd." is located in Taiwan.
3. Number of Experts Used to Establish the Ground Truth for the Test Set and Qualifications
- Number of experts: Not explicitly stated. The histological and radiographic analyses were likely performed by trained professionals (e.g., veterinary pathologists, radiologists), but the number of reviewers or their specific qualifications are not detailed in the provided text.
- Qualifications of experts: Not specified beyond the implied expertise in conducting and analyzing in vivo studies (e.g., histology, micro-CT).
4. Adjudication Method for the Test Set
- Adjudication method: Not explicitly stated. For animal studies, consistency and blinding are typically employed, but a formal "adjudication method" in the sense of multiple human readers for consensus is not described for this non-AI bone graft device. The results are presented as quantitative measurements and observations (e.g., "new bone formation increased," "minimal to mild inflammatory response").
5. If a Multi-Reader Multi-Case (MRMC) Comparative Effectiveness Study was done
- MRMC study: No, an MRMC comparative effectiveness study was not done. This type of study is typically performed for AI/image analysis devices where the AI's impact on human reader performance is being assessed. This document describes a traditional preclinical performance study for a bone graft material.
6. If a Standalone (i.e. algorithm only without human-in-the loop performance) was done
- Standalone performance: N/A. This is a bone graft material, not an algorithm or AI device. The "performance" refers to the biological and physical properties of the material itself, not the output of a software algorithm.
7. The Type of Ground Truth Used
- Type of ground truth: The ground truth for the in vivo study (which is the primary performance study) was established through direct anatomical, histological, and radiographic assessments of the bone defects in the animal model.
- Histological analysis: Quantified new bone formation, material degradation, and inflammatory response. This involves microscopic examination of stained tissue sections, which is considered a gold standard for assessing tissue regeneration and integration.
- Radiographic analysis: Used micro-CT to assess bone density and bone volume, providing quantitative structural data.
- Comparison to predicate: The "ground truth" for showing substantial equivalence was the performance of the established predicate device (Cerasorb) under the same study conditions.
8. The Sample Size for the Training Set
- Sample size for training set: N/A. This device is a bone graft material, not an AI or machine learning algorithm. Therefore, there is no "training set."
9. How the Ground Truth for the Training Set was Established
- Ground truth for training set: N/A. As there is no AI component, there is no training set and no ground truth establishment for such a set.
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(298 days)
Synthetic Bone Graft Particulate is intended to be used to augment the alveolar bone in tooth extraction procedures. (i.e., use in extraction sockets only)
Synthetic Bone Graft Particulate is a synthetic absorbable osteoconductive bone graft substitute manufactured from 45S5 bioactive glass. The device is in particulate form with a size range of 0.5 mm to 1 mm.
The device is intended for augmenting alveolar bone in tooth extraction procedures. At time of use, the device is mixed with sterile saline to form a wet sandy paste that is applied to the defect. Synthetic Bone Graft Particulate is progressively resorbed and replaced by new bone tissue during the healing process.
It is supplied sterile, packaged in a rubber stopper-sealed glass bottle within a sterile barrier package (Tyvek-sealed PETG box). The device packages are protected by carboard box.
The provided document is a 510(k) summary for a medical device called "Synthetic Bone Graft Particulate." It focuses on demonstrating substantial equivalence to a predicate device ("PerioGlas - Bioglass Bone Graft Particulate") for regulatory clearance.
This document does not contain acceptance criteria or study details for an AI/ML-driven device's performance. The "performance data" section (Section 7) describes non-clinical tests (sterilization, shelf-life, biocompatibility, chemical/physical properties) and an animal study for the bone graft material itself, not for an AI/ML system.
Therefore, I cannot extract the requested information about acceptance criteria and the study proving the device meets those criteria in the context of an AI/ML device. The device described in the document is a physical medical implant (synthetic bone graft particulate), not an AI/ML software or system.
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(456 days)
CMFlex™ is indicated for filling and/or augmenting maxillofacial, mandibular, and intraoral osseous defects. Indications include:
- Intrabony periodontal osseous defects
- Furcation defects
- Bony defects or bony deficiencies of the alveolar ridge
- Intraoral, maxillofacial, and mandibular augmentation
- Bony defects of the upper or lower jaw
- Filling of tooth extraction sites
- Sinus elevation grafting
CMFlex™ is a synthetic bone grafting material provided in block form of varying sizes (See Table 1.1) that can be easily trimmed or cut by the surgeon to fit the patient's bone defect(s). CMFlex™ is composed of majority synthetic hydroxyapatite powder bound by minority biodegradable polylactide-co-glycolide. CMFlex™ is fabricated via extrusion-based 3D-printing of liquid inks into regular porous structures. The combined macroscopic 3D-printed porosity, microporosity within the printed struts, and micron-sized hydroxyapatite particles gives CMFlex unique microstructural and physical properties. CMFlex™ is an osteoconductive, highly absorbent, and flexible bone graft that can be used in defects where new bone is needed. Although it is not intended for immediate load bearing applications, the implant remodels over time and is replaced by new bone tissue, functioning in the same manner as the predicate device. The blocks are provided sterile and are intended for single use. There are no accessories associated with CMFlex™.
This is a 510(k) premarket notification for a medical device called CMFlex™, a synthetic bone grafting material. The document focuses on demonstrating the substantial equivalence of CMFlex™ to previously cleared predicate devices.
1. Table of Acceptance Criteria and Reported Device Performance:
The document doesn't explicitly present a table of "acceptance criteria" in the sense of predefined thresholds for performance metrics that the device must meet. Instead, it compares the characteristics and performance of the CMFlex™ (subject device) to those of predicate devices to establish substantial equivalence. The "Conclusions" column in Table 1.3 effectively serves as the reported performance relative to the predicate devices for each performed test.
| Purpose | Acceptance Criteria (Implied by Comparison) | Reported Device Performance (CMFlex™) |
|---|---|---|
| Chemical composition | Similar composition to predicate devices (majority calcium phosphate, minority biodegradable polyester). | The subject and predicate devices are composed of a majority calcium phosphate component and minority biodegradable polyester component. (CMFlex™: 90% HA, 10% PLG; Primary Predicate: 78% CP, 22% PLG; Secondary Predicate: 99% β-TCP, 1% PLG). |
| Crystallinity (of calcium phosphate component) | Similar crystallinity (e.g., >90%) to predicate devices. | The subject and predicate devices have calcium phosphate crystallinities >90%. (CMFlex™: 96%; Secondary Predicate: 92%). |
| Calcium phosphate particle morphology | Similar spherical particle morphology to predicate devices. | The subject and predicate devices possess spherical calcium phosphate particles. (CMFlex™: 23 µm on average; OsteoScaf™: 27.5 µm on average). |
| Pore structure | Similar interconnected pores around 0.2mm and primary pores around 1mm. | The subject and predicate devices have interconnected pores around 0.2mm and primary pores around 1mm. (CMFlex™ and OsteoScaf™ are described as having >80% porosity with 0.25-1.20 mm pore size; Easy-Graft® also has interconnected pores). |
| Porosity | Porosities greater than 50%. | The subject and predicate devices have porosities greater than 50%. (CMFlex™: 85%; Primary Predicate: 80%; Secondary Predicate: 53% *reported, but noted that actual total porosity may be significantly greater and similar to CMFlex™ and OsteoScaf™. Both CMFlex™ and OsteoScaf™ exceed 80% porosity). |
| Mechanical strength (compressive) | Adequate handling properties and strength to ensure dimensional integrity; similar compressive properties to predicate devices. | The devices provide adequate handling properties and strength to ensure dimensional integrity when handled by the surgeon and delivered to bony application sites; devices have similar compressive properties. |
| pH in phosphate buffered saline | Similar pH to predicate devices. | The subject and predicate device have similar pH. |
| Biocompatibility | Passed all relevant ISO 10993 series of standards (cytotoxicity, sensitization, irritation, material-mediated pyrogenicity, genotoxicity, and systemic toxicity). | Devices passed cytotoxicity, sensitization, irritation, material-mediated pyrogenicity, genotoxicity, and systemic toxicity testing according to ISO 10993. |
| Performance in animal model (bone formation, remodeling) | Similar performance and biocompatibility to the predicate device in terms of new bone growth, residual implant material, preservation of ridge, changes to surrounding bone, and absence of significant adverse findings. | CMFlex™ was able to maintain ridge height, width, and depth and showed similar bone forming capacity and steady state inflammatory response accompanying the absorption process when compared to the predicate device. No significant adverse findings (exuberant necrosis, proliferative granulation tissue/fibrosis, extensive inflammation, or evidence of infection) were observed. |
| Sterilization Validation | Passed all acceptance criteria for validating the end sterilization method. | CMFlex™ passed all acceptance criteria for validating the end sterilization method. |
| Shelf Life | No significant mechanical property changes or clinically meaningful compositional and microstructural changes after accelerated and real-time aging. | CMFlex™ had no significant mechanical property changes or clinically meaningful compositional (ceramic and polymer component) and microstructural changes after accelerated (12-month simulation) and real-time aging (6 months and 12 months). |
| Package Integrity Testing (Initial and aged samples) | Passed all package integrity testing as is and after accelerated and real-time aging. | CMFlex™ packaging passed all package integrity testing as is and after accelerated (12-month simulation) and real-time aging (6 months and 12 months). |
2. Sample Sizes Used for the Test Set and Data Provenance:
-
Test Set for Animal Model:
- The document states "Canine critical sized defect model" but does not specify the exact number of canines or defects used.
- Data Provenance: Prospective (animal model). The country of origin is not specified, but typically such studies supporting U.S. FDA submissions are conducted under GLP (Good Laboratory Practice) regulations, often in the U.S. or facilities elsewhere compliant with those standards.
-
Test Set for Benchtop/Material Characterization:
- For tests like mechanical strength, pH, crystallinity, porosity, etc., standard ASTM or ISO methods were used, which imply specific sample sizes for replicate testing. However, the exact sample sizes (e.g., "n=5" for each test) are not explicitly stated in this summary.
- Data Provenance: Not specified, but generally refers to laboratory testing of the manufactured device.
3. Number of Experts Used to Establish the Ground Truth for the Test Set and Qualifications of Those Experts:
This information is not provided in the document. The animal study involves assessments (radiography, microCT, histomorphometric analysis), which would typically be performed and interpreted by qualified experts (e.g., veterinary radiologists, pathologists specialized in bone and biomaterials), but their number or specific qualifications are not detailed.
4. Adjudication Method for the Test Set:
This information is not provided in the document. For assessments in the animal study, it is common practice to have blinded assessments and potentially multiple reviewers, but the specific adjudication method is not mentioned.
5. If a Multi-Reader Multi-Case (MRMC) Comparative Effectiveness Study Was Done, If So, What Was the Effect Size of How Much Human Readers Improve with AI vs Without AI Assistance:
Not applicable. This document describes a traditional 510(k) submission for a physical bone grafting material, not an AI/software device. Therefore, no MRMC study or AI assistance evaluation was performed or is relevant to this submission.
6. If a Standalone (i.e., algorithm only without human-in-the-loop performance) Was Done:
Not applicable. As stated above, this is not an AI/software device.
7. The Type of Ground Truth Used (Expert Consensus, Pathology, Outcomes Data, etc.):
For the animal study:
- Pathology/Histomorphometry: "histomorphometric analysis" was explicitly conducted, which relies on expert pathological evaluation of tissue sections.
- Imaging: "radiography, microCT" implies radiological interpretation.
- Outcomes Data: "new bone growth, residual implant material, preservation of ridge (height, width, depth), changes to surrounding bone, and any significant adverse findings" refer to biological outcomes assessed in the animal model.
For benchtop tests, the "ground truth" is derived from the results of the specified standard test methods.
8. The Sample Size for the Training Set:
Not applicable. This is not an AI/machine learning device. There is no concept of a "training set" in this context. The manufacturing specifications and quality control procedures ensure consistent device characteristics, which are then verified through the performance data described.
9. How the Ground Truth for the Training Set Was Established:
Not applicable. As stated above, there is no training set for this type of device.
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(535 days)
InRoad® Dental Synthetic Bone Graft is intended for the filling and reconstruction of multi-walled bone defects such as:
- Defects after removal of bone cysts
- Augmentation of the atrophied alveolar ridge
- Sinus lift and sinus floor elevation (subantral augmenation)
- Filling of alveolar defects following tooth extraction for alveolar ridge preservation
- Filling of extraction defects to create an implant bed
- Filling of two- or multi- walled infra-bony pockets. and bi- and trifurcation defects
- Support function for a membrane in controlled tissue regeneration (CTR)
- Defects after surgical removal of retained teeth or corrective osteotomies
- Other multi-walled bone defects of the alveolar processes
InRoad® Dental Synthetic Bone Graft (SBG) is a synthetic, semi-dense porous bioceramic for bone regeneration. It is comprised of 90 ± 5% hydroxyapatite (HA) and 10 ± 5% ß-Tricalcium Phosphate (B-TCP). The granules are provided sterile (gamma irradiated) in a capped vial packaged in a sealed tray with lid. InRoad® Dental SBG granules are designed to resemble trabecular bone structure. The granule structure consists of interconnected primary open pores, a secondary channel-like structure, and tertiary small holes on the surface resulting in a biocompatible, osteoconductive biomaterial. The multi-porous structure of InRoad® Dental SBG makes it possible for the bone cells to migrate into the matrices and for new bone to grow. InRoad® Dental Synthetic Bone Graft is available in granule form in sizes of 0.3 - 1.0 mm (Small) and 0.8 - 1.8 mm (Large).
The provided text describes a 510(k) premarket notification for the "InRoad® Dental Synthetic Bone Graft" device (K202675). This document focuses on demonstrating substantial equivalence to a predicate device, rather than defining and proving acceptance criteria in the context of device performance metrics often associated with AI/software devices.
Because this is a bone graft material, the "acceptance criteria" and "study" are related to its biological safety and performance in vivo against a predicate device, not statistical performance metrics of algorithms. Therefore, many of the requested fields (such as sample size for test/training sets, experts, adjudication methods, MRMC studies, standalone performance, etc.) are not applicable to this type of device submission.
Here's an interpretation based on the available information:
1. Table of acceptance criteria and the reported device performance
The document does not explicitly present a table of "acceptance criteria" with numerical targets for performance metrics like sensitivity, specificity, or accuracy, as would be expected for an AI/software device. Instead, acceptance for this medical device (a bone graft) is based on demonstrating biocompatibility and equivalent in-vivo performance to a legally marketed predicate device.
The reported performance criteria and findings are summarized as follows:
| Acceptance Criterion (Implicit) | Reported Device Performance (InRoad® Dental SBG) |
|---|---|
| Biocompatibility | - Cytotoxicity: Passed- Sensitization: Passed- Irritation: Passed- Acute systemic toxicity: Passed- Material mediated pyrogenicity: Passed- Subacute / subchronic toxicity: Passed- Genotoxicity (mouse lymphoma assay): Passed- Genotoxicity (bacterial reverse mutation study): Passed- Implantation: Passed- Chronic toxicity: Passed- Carcinogenicity: Passed |
| Equivalent In-Vivo Performance (New Bone Growth & Residual Graft) | - Demonstrated equivalent performance for endpoints assessed, including morphometric analysis of new bone growth and residual synthetic bone graft, in a one-wall periodontal defect model in dogs when compared to the predicate device (Osbone® Dental synthetic bone graft material) at 12 weeks. |
| Sterility Assurance | - Achieved a sterility assurance level (SAL) of 1x10^6 through VDmax23 gamma sterilization validation (ISO 11137-2). |
| Packaging Integrity & Shelf-life | - Packaging integrity testing (ASTM F1140 and ASTM D3078) showed that shipping, sterilization, and accelerated aging (equivalent to 1-year real-time aging) did not compromise package strength or seal characteristics. Product performance verification showed material composition and granule size were not significantly changed. Allows for a 1-year shelf-life. |
2. Sample size used for the test set and the data provenance
- Animal Testing: The "sample size" for the in-vivo performance study is "dogs" with a "one-wall periodontal defect model." The exact number of dogs is not specified in this summary.
- Data Provenance: The animal study was conducted with a "US marketed membrane" and compared against a "US marketed predicate device." This suggests the study was conducted within a context relevant to the US market, likely in the US, but the specific country of origin is not explicitly stated. The study is prospective in nature as it involves treatment and observation over time (4, 8, and 12 weeks).
3. Number of experts used to establish the ground truth for the test set and the qualifications of those experts
- Not Applicable. For a bone graft material, "ground truth" is typically established through observable biological responses and measurements (e.g., histopathology, micro-CT analysis) by qualified personnel (veterinarians, histopathologists, statisticians). The document does not specify the number or qualifications of experts in this context, nor is it a requirement for this type of device submission to detail expert consensus on "ground truth" in the way it would be for an AI diagnostic device.
4. Adjudication method (e.g. 2+1, 3+1, none) for the test set
- Not Applicable. Adjudication methods like "2+1" or "3+1" are relevant for human interpretation tasks, especially in AI diagnostic studies. For an animal study evaluating bone growth and graft resorption, the assessments (e.g., radiographic, micro-CT, histopathological, histomorphometry) are objective measurements and interpretations performed by a team, rather than a consensus-based adjudication process for subjective human readings.
5. If a multi reader multi case (MRMC) comparative effectiveness study was done, If so, what was the effect size of how much human readers improve with AI vs without AI assistance
- No. This is a bone graft material, not an AI/software device. Therefore, no MRMC study involving human readers with or without AI assistance was performed.
6. If a standalone (i.e. algorithm only without human-in-the-loop performance) was done
- No. This is a physical medical device (bone graft), not an algorithm. Therefore, no standalone algorithm performance study was done.
7. The type of ground truth used (expert consensus, pathology, outcomes data, etc)
- The "ground truth" for the animal study was established through a combination of objective and interpretative methods:
- Animal health observation
- Radiographic assessment
- Micro-CT evaluation with statistical analysis
- Histopathological evaluation
- Histomorphometry
8. The sample size for the training set
- Not Applicable. This is a physical medical device (bone graft), not an AI/software device that requires a training set.
9. How the ground truth for the training set was established
- Not Applicable. As there is no training set, there is no ground truth for a training set to be established.
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(115 days)
OsOpia is a bone grafting material indicated for use in the specific treatment of extraction sockets and maxillary sinus augmentation procedures.
OsOpia is a synthetic, > 90% TCP (Tri-Calcium Phosphate - Ca3(PO4)2) and < 10% Hydroxyapatite (Ca10(PO4)6 (OH)2) resorbable micro-structured bone grafting material for the repair of bony defects. OsOpia induces and guides the three-dimensional regeneration of bone in the defect site into which it is implanted. Rigid fixation techniques are recommended as needed to assure stabilization of the defect in all planes (e.g. bioresorbable barrier membranes). When placed next to viable host bone, new bone will be deposited on the surface of the implant resorbs and is replaced by bone during the natural process of bone remodelling.
OsOpia is gamma sterilized, comes in several sizes in granular form, and is double sterile packaged for single use only.
The provided text describes the regulatory clearance for the OsOpia Synthetic Bone Void Filler. It does not, however, describe the acceptance criteria of a device (e.g., an AI/ML algorithm or diagnostic tool) in the typical sense of performance metrics like sensitivity, specificity, or F1-score. Instead, it details the criteria and studies used to demonstrate substantial equivalence for a medical device (a bone grafting material) to existing legally marketed predicate devices, as required for a 510(k) submission to the FDA.
Therefore, many of the requested items (sample sizes for test sets, data provenance, number of experts for ground truth, adjudication methods, MRMC studies, standalone performance, training set details) are not applicable in the context of this traditional medical device submission, which is not for an AI/ML device.
However, I can extract the relevant information from the provided document regarding how the device (OsOpia Synthetic Bone Void Filler) met the criteria for substantial equivalence.
Here's a breakdown based on the document:
1. Table of "Acceptance Criteria" (for Substantial Equivalence) and Reported Device Performance
| Criterion Type | Description of Criterion (as implied by FDA 510(k) process for this device type) | Reported Device Performance (OsOpia) |
|---|---|---|
| Biocompatibility | Compliance with ISO 10993-1 and FDA Guidance for biological evaluation of medical devices (including cytotoxicity, irritation/sensitization, systemic toxicity, genotoxicity, implantation, and hemocompatibility, as applicable). | Assessed using ISO 10993-5 (cytotoxicity), ISO 10993-6 (local effects after implantation), ISO 10993-9 (degradation of materials), ISO 10993-10 (irritation and skin sensitization), and ISO 10993-11 (systemic toxicity). Found to be biocompatible per ISO 10993-1. |
| Sterilization Validation | Sterility Assurance Level (SAL) of 10^-6 for devices sterilized by gamma irradiation. | Validated in accordance with ISO 11137-1 and ISO 11137-2 to a sterility assurance level of 10^-6. |
| Shelf Life | Demonstration of product and packaging stability over the claimed shelf life, commonly through accelerated and real-time aging studies. Parameters like physical integrity, and product characteristics (e.g., chemical composition, functional properties) should be maintained. | Assigned based on accelerated and real-time aging studies of both packaging and product. Packaging tested with burst (ASTM F1140), peel (ASTM F88), and gross leak (ASTM F2096) tests. Product stability assessed by monitoring color, XRD, SEM, and porosity. |
| Bioburden/Pyrogenicity | Adherence to specifications for microbial load (bioburden) and absence of pyrogenic substances (bacterial endotoxin). | Verification batches met specifications for bioburden and pyrogenicity. Bacterial endotoxin testing (LAL method, USP<85>) showed the device meets FDA established endotoxin limits. |
| Material Characterization | Demonstration of equivalent chemical composition, physical properties, and performance characteristics to predicate/reference devices through standardized testing. This typically includes identification of components, structural analysis, and functional assessments relevant to the device's intended use. | Performed in accordance with ASTM F1088. Included: X-ray diffraction (XRD) and Fourier transform infrared spectroscopy (FTIR) for chemical composition; inductively coupled plasma/mass spectroscopy (ICP/MS) for trace elemental analysis; dissolution for in vitro calcium release rate; and mercury intrusion porosimetry for porosity. Analytical characterization demonstrated equivalent chemical composition, physical properties, and performance to predicate/reference devices. |
| Animal Study Performance | Demonstration of suitable performance as a bone grafting material in a relevant animal model for the intended use, showing bone formation and integration. | Evaluated in a sheep model for intraoral maxillary sinus floor augmentation surgery. Results demonstrated suitable performance as a bone grafting material for maxillary sinus augmentation. |
| Clinical Performance | For bone grafting materials, this often involves demonstrating suitable clinical outcomes such as new bone formation, implant survival rates in procedures where the graft is used, and absence of serious adverse events, to show safety and effectiveness comparable to marketed devices, especially for the stated indications (extraction sockets, maxillary sinus augmentation). | Six clinical studies (all prospective, one randomized, others single-arm) involving 90 patients were used. No serious adverse events reported. Two studies (at 5-6 months post-implantation) showed equal or greater new bone formation than control via bone histology. Four studies evaluated implant placement survival, reporting a survival rate of ≥96%. Demonstrated performance for socket extraction and maxillary sinus augmentation. |
| Indications for Use | The intended use and indications for use should be substantially equivalent to a predicate device, or any differences should not raise new questions of safety or effectiveness. The range of use (e.g., granule size) should be within or narrower than that of the predicate. | Proposed indications (extraction sockets and maxillary sinus augmentation) are narrower than the primary predicate (which includes root resection, apicoectomy, cystectomy, and periodontal defects in addition to sockets and sinus augmentation), raising no new questions of safety/effectiveness. Granule size range (250-1000 µm) is within the predicate's range (200-2000 µm) and narrower, thus raising no new safety/effectiveness issues. |
| Composition | The device's composition (e.g., ratio of β-TCP to HA) should be substantially equivalent to or reasonably compared with predicates or reference devices, without raising new safety/effectiveness concerns. | OsOpia: β-TCP >90%, HA <10%. Primary predicate (OsSatura): β-TCP 20%, HA 80%. A reference device (CuriOs™) has the same β-TCP >90%, HA <10% ratio as OsOpia. This difference in ratio from the primary predicate is addressed by comparison to a reference device with similar composition. |
2. Sample size used for the test set and the data provenance (e.g., country of origin of the data, retrospective or prospective)
- Clinical Studies (Test Set):
- Sample Size: 90 patients overall, across six clinical studies.
- Data Provenance: Not explicitly stated from which country/countries the patients originated, but the studies were prospective. One study was randomized, and the others were single-arm.
3. Number of experts used to establish the ground truth for the test set and the qualifications of those experts (e.g., radiologist with 10 years of experience)
- Not Applicable. For this bone grafting material, the "ground truth" in clinical studies would typically be assessed by the treating surgeons, periodontists, or oral and maxillofacial surgeons, and confirmed through histological analysis (for bone formation) or clinical follow-up (for implant survival). The document does not specify the number or qualifications of experts for these assessments, but rather the results of those assessments.
4. Adjudication method (e.g., 2+1, 3+1, none) for the test set
- Not Applicable. Adjudication methods like 2+1 or 3+1 are typically used for discordance resolution in image interpretation or diagnostic evaluations, which is not relevant for the assessment of a bone grafting material.
5. If a multi reader multi case (MRMC) comparative effectiveness study was done, If so, what was the effect size of how much human readers improve with AI vs without AI assistance
- Not Applicable. This is a medical device (bone grafting material), not an AI/ML diagnostic or image analysis tool. MRMC studies are not relevant here.
6. If a standalone (i.e., algorithm only without human-in-the-loop performance) was done
- Not Applicable. This is a bone grafting material, not an algorithm.
7. The type of ground truth used (expert consensus, pathology, outcomes data, etc.)
-
Clinical Ground Truth:
- Bone Histology: Used in two studies (at 5-6 months post-implantation) to assess new bone formation. This is a form of pathology/histological analysis.
- Implant Survival: Used in four studies, representing outcomes data.
- Adverse Events: Monitoring for adverse events is also a form of outcomes data/safety assessment.
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Pre-clinical/Bench Ground Truth:
- Biocompatibility: Based on compliance with ISO standards.
- Sterility: Based on compliance with ISO standards and SAL testing.
- Material Properties: Based on analytical techniques like XRD, FTIR, ICP/MS, and mercury intrusion porosimetry, compared against known characteristics of similar materials (predicates).
- Animal Model Performance: Assessment of bone regeneration in a sheep model.
8. The sample size for the training set
- Not Applicable. This is a traditional medical device, not an AI/ML algorithm that requires a training set. The "data" here supports substantial equivalence rather than training a model.
9. How the ground truth for the training set was established
- Not Applicable. See point 8.
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(156 days)
Straumann® BoneCeramic is indicated for filling and/or augmenting the following intraoral/maxillofacial osseous defects:
- Intrabony periodontal osseous and furcation defects
- Augmentation of bony defects of the alveolar ridge ●
- Filling tooth extraction sites ●
- Sinus elevation grafting .
Straumann® BoneCeramic is a fully synthetic bone graft substitute of medical grade purity in particulate form composed of biphasic calcium phosphate. It consists of a mixture of 60% hydroxyapatite (HA), which is 100% crystalline, and of 40% of the beta form of tricalcium phosphate (beta-TCP). BoneCeramic is 90% porous with interconnected pores of 100-500 microns in diameter. It is osteoconductive and gradually resorbed and replaced by vital bone during bone remodeling.
BoneCeramic is available in two granule sizes: 400-700 µm diameter and 500-1000 µm diameter and in three different filling volumes: 0.25g, 0.5g and 1.0g. It is delivered sterile.
This document is an FDA 510(k) summary for the Straumann® BoneCeramic device. It primarily focuses on demonstrating substantial equivalence to a predicate device rather than presenting a study to prove performance against specific acceptance criteria for a novel device. Therefore, many of the requested elements are not applicable in the context of this 510(k) summary.
However, based on the provided text, here’s an analysis:
1. A table of acceptance criteria and the reported device performance
The document does not present specific acceptance criteria in a quantitative table format with corresponding device performance metrics for a clinical study. Instead, it relies on demonstrating substantial equivalence to a legally marketed predicate device (K040646 Straumann Granules) by showing similar technological characteristics and relying on the predicate's established safety and effectiveness.
The "reported device performance" is primarily qualitative and inferred from the long-term use of the predicate device and the new device sharing similar characteristics.
| Acceptance Criteria (Implied) | Reported Device Performance |
|---|---|
| Biocompatibility: Meet ISO 10993 standards and FDA guidance. | Biocompatibility confirmed. (Evaluated for the new packaging material) |
| Packaging Validation: Meet ISO 11607 and ASTM F1980. | Packaging process and shelf life validated. |
| Sterilization Validation: Meet ISO 11137. | Sterilization process validated according to ISO 11137. |
| Pyrogenicity: LAL Endotoxin Analysis < 20 EU/device. | LAL Endotoxin Analysis performed on every batch, meeting the limit of 20 EU/device. |
| Clinical Performance: Safe and effective for indicated uses. | Device marketing and complaint history show an overall complaint rate of <0.05% over 13.5 years. Review of 18 clinical publications across relevant indications demonstrates successful product use. |
2. Sample sized used for the test set and the data provenance (e.g. country of origin of the data, retrospective or prospective)
This information is not provided. The document refers to "review of the relevant clinical literature included 18 clinical publications," but does not detail the sample sizes, study designs (retrospective/prospective), or data provenance of these publications. For the internal device performance checks (biocompatibility, packaging, sterilization, pyrogenicity), the "sample size" would refer to the number of units tested, but this detail is not given.
3. Number of experts used to establish the ground truth for the test set and the qualifications of those experts (e.g. radiologist with 10 years of experience)
Not applicable. The document does not describe a test set with a ground truth established by experts in the context of an AI/image analysis device. The "ground truth" for the device's performance is inferred from compliance with standards and clinical literature demonstrating real-world efficacy.
4. Adjudication method (e.g. 2+1, 3+1, none) for the test set
Not applicable. There is no mention of an adjudication method as would be used in a study evaluating diagnostic accuracy with expert consensus.
5. If a multi reader multi case (MRMC) comparative effectiveness study was done, If so, what was the effect size of how much human readers improve with AI vs without AI assistance
Not applicable. This device is a bone grafting material, not an AI-assisted diagnostic tool. Therefore, an MRMC study and effects on human reader performance are not relevant.
6. If a standalone (i.e. algorithm only without human-in-the-loop performance) was done
Not applicable. This is not an algorithm or AI device.
7. The type of ground truth used (expert consensus, pathology, outcomes data, etc)
For the "clinical performance," the ground truth is indirectly based on outcomes data from the "device marketing and complaint history" and the "relevant clinical literature" (which would detail clinical outcomes in patients). For the technical characteristics (biocompatibility, sterilization, pyrogenicity, packaging), the ground truth is established by adherence to international standards (e.g., ISO, ASTM) and in vitro or in vivo test results demonstrating compliance.
8. The sample size for the training set
Not applicable. This is not an AI/machine learning device that requires a "training set."
9. How the ground truth for the training set was established
Not applicable. As above, this is not an AI/machine learning device.
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(332 days)
-Augmentation or reconstructive treatment of the alveolar ridge.
-Filling of periodontal defects.
-Filling of defects after root resection, apicocetomy, and cystectomy.
-Filling of extraction sockets to enhance preservation of the alveolar ridge.
-Elevation of the maxillary sinus floor.
-Filling of periodontal defects in conjunction with products intended Tissue Regeneration (GTR) and Guided Bone Regeneration (GBR).
-Filling of peri-implant defects in conjunction with products intended for Guided Bone Regeneration (GBR).
Cytrans Granules is composed of carbonate apatite. The material of Cytrans Granules has been formulated in terms of carbonate apatite content to the mineral content of natural bone. As Cytrans Granules is completely synthetic, there are no animal derived ingredients in the formula. Cytrans Granules is gradually resorbed and eventually replaced with new bone. Resorption is by osteoclasts under acidic conditions. Cytrans Granules is manufactured by a validated manufacturing process which guarantees batch to batch conformity and reproducibility. It is sterilized via gamma irradiation and will be marketed/sold in sterile vials for single use.
The provided text describes the 510(k) submission for Cytrans Granules, a bone grafting material. While it discusses performance testing, it does not explicitly state acceptance criteria in a quantitative table or directly link numerical performance results to specific criteria. The document focuses on demonstrating substantial equivalence to a predicate device rather than meeting predefined acceptance criteria for a novel performance claim.
However, based on the information provided, we can infer the aspects of performance that were evaluated and deemed acceptable for the device to be considered substantially equivalent.
Here's an attempt to structure the information according to your request, acknowledging the limitations of the provided text:
Acceptance Criteria and Device Performance for Cytrans Granules
1. Table of Acceptance Criteria and Reported Device Performance
As specific quantitative "acceptance criteria" for the device's clinical performance are not explicitly stated in the document (which is common for 510(k) submissions focusing on substantial equivalence), the table below infers the performance aspects that were evaluated and found acceptable relative to the predicate devices and general expectations for bone grafting materials. The "Reported Device Performance" column reflects the findings from the non-clinical and clinical studies.
| Performance Aspect (Inferred Acceptance Criterion) | Reported Device Performance |
|---|---|
| Biocompatibility | - Non-cytotoxic |
| (Materials must be safe for biological systems, | - Non-irritating |
| non-toxic, and non-sensitizing) | - Non-systemically toxic |
| - Negative test results with no tissue damage observed in Cytotoxicity, Sensitization, Genotoxicity (reverse mutation and chromosomal aberration), Intracutaneous Reactivity, Acute Toxicity, and Sub-chronic Toxicity tests (in accordance with ISO 10993). | |
| Bone Formation / Regeneration | - Animal Studies: Bone formation occurred faster with Cytrans Granules compared to some commercially available bone substitutes in a beagle dog model for alveolar bone defects with simultaneous dental implant installation (evaluated at 12 weeks). New bone formation occurred faster and demonstrated a higher bone-to-implant contact ratio after 4 and 12 weeks in a beagle mandible model. |
| (Device must promote or facilitate new bone | - Clinical Study (Sinus Floor Augmentation): All major evaluation items exceeded the level deemed to be effective for the combined single-phase and two-phase treatment groups. |
| growth and integration) | - Clinical Study (Sinus Floor Augmentation): Opacity due to the product or new bone formation confirmed by panoramic X-ray in the single-stage group (7±2 months post-implantation). Average 10.5 mm vertical residual bone confirmed by CT imaging in the two-stage group. Tissue biopsy confirmed new bone formation in all cases of the two-stage group. |
| Mechanical Stability / Implant Integration | - Clinical Study (Sinus Floor Augmentation): No rotation or movement occurred in any of the cases due to torque loading (single-stage treatment group). Implant placement torque of 26.9 N average (two-stage treatment group). |
| (Device must provide adequate support and allow | |
| for implant placement/integration) | |
| Resorption Properties | - Resorption time: 6-24 months. Resorption slows down after being covered with newly formed bone. (Comparable to predicate device) |
| (Device should resorb over time and be replaced | |
| by natural bone) | |
| Physical and Chemical Specifications | - Meets specifications for: chemical composition (100% Carbonate Apatite, ~12% Carbonate content, Ca/P ratio 1.67/1), particle size (0.3-0.6 mm S size, 0.6-1.0 mm M size), shape, porosity (28%), resorption properties, phase purity (85% crystalline), crushing strength (2.75 N), pH (7.8), and water solubility (in vitro dissolution @ 25°C in pH 5.5 after 30 min: 14.8 mg/L (S), 10.7 mg/L (M); in vitro dissolution @ 25°C in pH 7.3 after 30 min: 0.81 mg/L (S), 0.52 mg/L (M)). |
| (Device must conform to defined material | |
| characteristics) | |
| Sterility | - Sterilized to a Sterility Assurance Level (SAL) of 1 x 10^-6. |
| (Device must be sterile) | - Sterilization cycle validated in accordance with FDA's Quality Systems Regulation and ISO 11137-1:2006, compliance with ISO 11137-2. |
2. Sample Size Used for the Test Set and Data Provenance
-
Test Set (Clinical Study):
- Sample Size: 22 cases (patients) for sinus floor augmentation (excluding 6 cases due to exclusion criteria).
- Data Provenance: Japan (stated as "three institutions in Japan"). The study was prospective clinical testing.
-
Test Set (Animal Studies):
- Sample Size: Not explicitly stated beyond "a beagle dog model" where "three commercially available bone substitutes" were compared. It implies multiple animals were used, but the exact number is not provided.
- Data Provenance: Not specified, but generally animal studies typically involve institutional animal care and use committee approval from the research facility.
3. Number of Experts Used to Establish Ground Truth for the Test Set and Qualifications of Those Experts
- The document does not explicitly state the number of experts used or their detailed qualifications for establishing ground truth in the clinical study.
- For a clinical study involving sinus floor augmentation and dental implants, it is implicitly understood that the "ground truth" (e.g., successful implant placement, bone formation assessment, complication rates) would be established by qualified dental surgeons and potentially radiologists/pathologists involved in patient follow-up and evaluation (panoramic X-ray, CT imaging, tissue biopsy).
- The study was conducted across "three institutions in Japan," suggesting that multiple clinical professionals were involved in the evaluations.
4. Adjudication Method for the Test Set
- The document does not explicitly describe an adjudication method (e.g., 2+1, 3+1).
- Clinical trials typically involve standardized protocols for evaluation and data collection, and any discrepancies might be resolved by consensus or a senior investigator, but a formal adjudication process beyond standard clinical practice is not mentioned. Outcomes like "success rate...exceeded the level deemed to be effective" suggest a predefined standard, but not a specific adjudication protocol.
5. Multi-Reader Multi-Case (MRMC) Comparative Effectiveness Study
- No, an MRMC comparative effectiveness study was not done in the context of comparing human readers' performance with and without AI assistance. This document describes a medical device (bone grafting material), not an AI-powered diagnostic or assistive tool.
6. Standalone Performance (Algorithm Only without Human-in-the-Loop Performance)
- Not applicable. This device is a bone grafting material, not an algorithm or AI system. Its performance is evaluated through its biological interaction within the patient's body, not as a standalone software algorithm.
7. Type of Ground Truth Used
- Clinical Study (Sinus Floor Augmentation):
- Clinical Outcomes Data: Successful implant placement, lack of rotation/movement, implant placement torque, absence of complications.
- Imaging Data: Opacity on panoramic X-ray and vertical residual bone on CT imaging confirming new bone formation.
- Pathology/Histology: Tissue biopsy confirming new bone formation in all cases of the two-stage group.
- Animal Studies: New bone formation, bone-to-implant contact ratio (likely assessed histologically and/or with imaging).
- Biocompatibility Testing: Lab-based tests (Cytotoxicity, Sensitization, Genotoxicity, etc.) with established assay endpoints and interpretations.
8. Sample Size for the Training Set
- Not applicable. This is a medical device, not a machine learning model. Therefore, there is no "training set" in the context of AI/ML. The device's development involved material science, preclinical, and clinical testing, but not an ML training paradigm.
9. How the Ground Truth for the Training Set Was Established
- Not applicable. As there is no training set (for AI/ML), there is no ground truth established for it. The "ground truth" equivalent in medical device development would be the scientific and clinical validation of its material properties, biological interactions, and clinical efficacy through established testing methods and clinical trials.
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(268 days)
OSTEON III is intended for use as a bone grafting material to fill, augment or reconstruct periodontal or oral/maxillofacial defects.
- Periodontal/infrabony defects
- Ridge augmentation
- Extraction Sites(implant preparation/ placement)
- Sinus lifts
- Cystic cavities
This product is a synthetic osteoconductive bone graft substitute composed of hydroxyapatite (HA) and beta-tricalcium phosphate (ß-TCP). This product presents an interconnected porous structure, similar to that human cancellous bone. This product is available as irregular shape particle of size 0.2~2.0mm. It is sterilized by gamma-radiation.
The provided text is a 510(k) summary for a medical device called OSTEON III. It describes the device's characteristics and compares it to predicate devices to demonstrate substantial equivalence, but it does not provide the details requested in your prompt regarding acceptance criteria and a study proving the device meets those criteria.
Specifically, the document does not contain any information about:
- A table of acceptance criteria and reported device performance for clinical endpoints. It has a table comparing technological characteristics (composition, physical properties) to predicate devices, and lists biocompatibility and performance bench tests conducted, but not acceptance criteria for clinical outcomes.
- Sample size used for a test set or data provenance for a clinical study. The document only references non-clinical testing.
- Number of experts used to establish ground truth or their qualifications.
- Adjudication method for a test set.
- Multi-reader multi-case (MRMC) comparative effectiveness study or effect size.
- Standalone (algorithm only) performance. (This device is a bone grafting material, not a software algorithm).
- Type of ground truth used for a clinical study.
- Sample size for a training set. (Again, this relates to an algorithm, which OSTEON III is not).
- How ground truth for the training set was established.
The document focuses on demonstrating substantial equivalence to legally marketed predicate devices based on:
- Intended Use and Indications for Use: OSTEON III is for bone grafting to fill, augment, or reconstruct periodontal or oral/maxillofacial defects, similar to its predicates.
- Technological Characteristics: Comparison of main materials (HA and β-TCP), device design (interconnected porous structure), composition, and physical properties (porosity, pore size, particle size, Ca/P ratio, crystallinity).
- Biocompatibility Testing: A list of ISO 10993 tests performed (Cytotoxicity, Sensitization, Pyrogenicity, Intracutaneous reactivity, Systemic toxicity, Subchronic toxicity, Genotoxicity-Ames, Genotoxicity-Micro nucleus, Implantation, Genotoxicity-Chromosomal aberration, Endotoxin (LAL)). The results are stated as showing the materials are non-toxic and non-sensitizing.
- Performance Bench Testing: A list of engineering tests like Visual Test, Size, Capacity, Density, Trace Elements, Ca/P ratio, Crystalline phase Composition, Crystallinity, Morphology & Surface Characteristics, Water Solubility, Elution Test (pH, Pb), Potassium permanganate consumed, Ultraviolet rays absorption spectrum, Resorption, Particle size distribution, Compressive strength, Shear and Elastic modulus. The document states "All test results demonstrate that the materials chosen, the manufacturing process, and the design utilized for the OSTEON III met the established specifications necessary for consistent performance according to its intended use."
In summary, the provided document is a 510(k) summary for a bone grafting material, not a clinical study report for an AI/software device. Therefore, it does not contain the information requested in your prompt regarding clinical acceptance criteria, study design, or expert consensus details.
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(251 days)
ShefaBone SCPC Resorbable Bioactive Bone Graft, is a silica-calcium phosphate composite, synthetic bone graft material for use in oral, dental intraosseous, and maxillofacial bone defects. Typical uses include:
- Periodontal / infrabony defects
- Ridge augmentation (sinusotomy, osteotomy, cystectomy)
- Extraction sites (ridge maintenance/augmentation, implant preparation/ placement)
- Sinus lifts
- Cystic cavities
- Oral and maxillofacial augmentation
ShefaBone SCPC Resorbable Bioactive Bone Graft, is a silica-calcium phosphate composite, synthetic bone graft material. It is resorbable and has a porous structure with a particle size of 90-710 micron. It is processed by thermal treatment to bond the chemical components together. It is packaged in a sealed glass vial containing 1 gm (1cc) of SCPC particles, sealed in an aluminum sterilization pouch, and sterilized by Gama radiation.
I am sorry, but the provided text does not contain information about acceptance criteria or a study proving device performance. The document is a 510(k) premarket notification approval letter for a medical device (ShefaBone SCPC Resorbable Bone Graft) and includes a summary comparing it to a predicate device.
Therefore, I cannot fulfill your request to describe the acceptance criteria and the study that proves the device meets them based on the given text.
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