Hole In Plate Research Articles

Heat Transfer Coefficient for a Glazed Transpired Solar Collector in Natural Convection Mode

A glazed transpired solar collector (GTC) was set up to operate in natural convection mode. Collector air temperature and velocity were measured at specific points in the collector. Solar radiation, ambient temperature, collector cover glass and absorber temperature were also measured. Using dimensional analysis and the measured data, a heat transfer correlation was obtained for the collector which will enable the heat transfer coefficient to be determined. The GTC heat transfer correlation based on influence of pitch is . The GTC absorber plate hole diameter was 3.0 mm and the pitches ranged from 15 mm to 35 mm. The Nusselt number correlation for influence of pitch, P for predicted all Nusselt numbers well with maximum error of 5.2%. The predicted Nusselt numbers using the correlation of this work were found to be in close agreement with a similar model which was developed based on the influence of absorber hole diameter. Furthermore, the correlation of this work is valuable for future studies on optimization of pitch for a given hole size in the application of the GTC for air heating and crop drying.

Accuracy and influencing factors of maxillary and mandibular repositioning using pre-bent locking plates: a prospective study

In-house repositioning methods based on three-dimensional (3D)-printing technology and the use of pre-bent plates has been gaining popularity in orthognathic surgery. However, there remains room for further improvement in methods and investigations on clinical factors that affect accuracy. This single-centre, prospective study included 34 patients and aimed to evaluate the accuracy and factors influencing maxillary and mandibular repositioning using pre-bent locking plates. The plates were manually pre-bent on the 3D-printed models of the planned position, and their hole positions were scanned and reproduced intraoperatively with osteotomy guides. The accuracy of repositioning and plate-hole positioning was calculated in three axes with the set landmarks. The following clinical factors that affect repositioning accuracy were also verified: deviation of the plate-hole positioning, amount of planned movement, and amount of simulated bony interference. The median deviations of the repositioning and hole positioning between the preoperative plan and postoperative results were 0.26 mm and 0.23 mm, respectively, in the maxilla, and 0.69 mm and 0.36 mm, respectively, in the mandible, suggesting that the method was highly accurate, and the repositioning concept based on the plate hole and form matching was more effective in the maxilla. Results of the correlation test suggest that large amounts of bony interference and plate-hole positioning errors in the up/down direction could reduce mandibular repositioning accuracy.

Biomechanical analysis of a novel screw system with a variable locking angle in mandible angle fractures.

Locking plates nowadays represent an important treatment in bone trauma and bone healing due to its strong biomechanical properties. The purpose of this study was to both computationally and experimentally validate a novel screw locking system by comparing it to another locking system from state-of-the-art and to apply it in an environment of a fractured mandible. FEA was used to test both systems prior to experimental tests. The systems were locked in the plate holes at 0°, 10°, 15°, and 20°. Cyclic bending tests and push-out tests were performed in order to determine the stiffness and push-out forces of both locking systems. Finally, newly designed locking system was implemented in mandibular angle fracture. Control locking system was biomechanically superior in push-out test, but with no greater significance. In contrast, the new locking system showed greater stiffness by 17.3% at the deflection angle of 20° in cyclic tests, with lower values for other deflection angles. Similar values were displayed in fractured mandible angle environment. Greater stiffness of the new locking system in cyclic loading tests, together with polyaxiallity of the new locking screw, could lead to easier application and improved biomechanical stability of the mandible angle fractures.

A local approach for fracture analysis of sharp notches under Mode I loading

On the basis of the linear elastic notch stress fields, the local approach for fracture analysis of sharp notches under Mode I loading is proposed in this study. In the local approach, the stress concentration factor eigenvalue is introduced. For any sharp notch (V-notch), the geometric material characteristic parameters (GMPs) corresponding to the pointed V-notch are calculated by using an approach of determining the eigenvalue and models such as notch angle effect on the eigenvalue, notch depth effect on the eigenvalue and different material effect on the eigenvalue. It is seen from this study that fracture analysis for the sharp notches is well performed by using the obtained GMPs and the local stress field failure model proposed in this paper with a high accuracy within an error interval of a few percent. Taking into account that the fracture toughness is unknown at some circumstances, an empirical equation of determining is proposed in this study. By using the empirical equation, the local approach proposed in this study has a wide of applications such as fracture analysis of the rounded-tip V-notched Brazilian disc (RV-BD) specimens and fracture analysis of center circular hole plates made of metallic materials.

Optimizing structure of photovoltaic thermal solar air heaters with baffles and hole plates

Based on previous research, a mathematical model of photovoltaic thermal solar air heaters with baffles and hole plates (PVTSAH-B) was proposed to analyze the influence of the opening ratio on the flow and heat transfer characteristics of PVTSAH-B and to further improve its performance. The results showed that the air velocity and temperature distributions were affected by the opening ratio of hole plates. The vortex zones in PVTSAH-B could be broken by air jet flow when the opening ratio of hole plates was less than 0.4. The PV modular surface temperature and the area of the high-temperature zones decreased with the decreasing of the opening ratio of hole plates. Lowering the opening ratio of hole plates could increase the thermal and power efficiency. However, the fan energy consumption increased due to the decrease in the opening ratio of hole plates increasing the pressure loss. Therefore, the effective power efficiency decreased. 0.4 opening ratio of hole plates recorded the highest performance of PVTSAH-B. Meanwhile, the maximum values of the effective power efficiency, thermal efficiency and the total efficiency were 0.129, 0.567 and 0.696 respectively, which were 5.97%, 12.30% and 11.07%, higher than the opening ratio 1.0, respectively.

Study on process of removing burrs from group holes in TC4 titanium alloy plate by non-synchronous rotation grinding

Study on process of removing burrs from group holes in TC4 titanium alloy plate by non-synchronous rotation grinding

MIDLINE HERNIAS: AXIOMS AND CURRENT SURGICAL TRENDS

Midline hernia is a pathological condition that is characterized by a protrusion of some internal organs through the holes in the aponeurotic plate of the abdominal raphe.
 The presented analytical study provides information on the likely risk factors for hernia formation, the assessment of which remains relevant today. Besides, the authors examine diagnosis and classification of midline hernias and describe the advantages and disadvantages of the proposed surgical methods of hernia treatment. Despite a large number of proposed surgical methods for midline hernia correction and treatment, all of them have certain disadvantages, mainly associated with a high incidence of reherniation and postoperative complications. The choice between the proposed methods of hernia orifice closure and intraoperative midline strengthening to prevent reherniation is important for any surgeon.
 The information search for the literature review was performed on the platforms elibrary.ru and pubmed.ncbi.nlm.nih.gov.

Vibration and sound radiation of an acoustic black hole plate immersed in heavy fluid

Vibrational acoustic black holes (ABHs) have shown great promise for reducing structural vibrations and sound radiation in light fluids. However, it is still unknown whether the acoustic black hole (ABH) effect can be materialized in heavy fluids. This paper discusses this issue by developing a semi-analytical model on a simply supported ABH plate that vibrates and radiates sound into water. The proposed model is validated by finite element models and used to investigate the vibration and sound radiation properties of the ABH plate in different frequency ranges. The results show that the ABH effect can be systematically manifested in heavy fluids, as reflected by a significant increase in structural damping and a decrease in vibration and sound radiation. Numerical analysis of the radiation damping and mass loading effects shows that the radiation damping has little effect on the vibration reduction of the water-loaded plate. However, the mass loading effect mitigates the low-frequency drawback of conventional ABH structures in air, resulting in a broadband reduction in structural vibration and sound radiation from the water-loaded ABH plate.

Biomechanical design optimization of distal femur locked plates: A review.

Clinical findings, manufacturer instructions, and surgeon's preferences often dictate the implantation of distal femur locked plates (DFLPs), but healing problems and implant failures still persist. Also, most biomechanical researchers compare a particular DFLP configuration to implants like plates and nails. However, this begs the question: Is this specific DFLP configuration biomechanically optimal to encourage early callus formation, reduce bone and implant failure, and minimize bone "stress shielding"? Consequently, it is crucial to optimize, or characterize, the biomechanical performance (stiffness, strength, fracture micro-motion, bone stress, plate stress) of DFLPs influenced by plate variables (geometry, position, material) and screw variables (distribution, size, number, angle, material). Thus, this article reviews 20 years of biomechanical design optimization studies on DFLPs. As such, Google Scholar and PubMed websites were searched for articles in English published since 2000 using the terms "distal femur plates" or "supracondylar femur plates" plus "biomechanics/biomechanical" and "locked/locking," followed by searching article reference lists. Key numerical outcomes and common trends were identified, such as: (a) plate cross-sectional area moment of inertia can be enlarged to lower plate stress at the fracture; (b) plate material has a larger influence on plate stress than plate thickness, buttress screws, and inserts for empty plate holes; (c) screw distribution has a major influence on fracture micro-motion, etc. Recommendations for future work and clinical implications are then provided, such as: (a) simultaneously optimizing fracture micro-motion for early healing, reducing bone and implant stresses to prevent re-injury, lowering "stress shielding" to avoid bone resorption, and ensuring adequate fatigue life; (b) examining alternate non-metallic materials for plates and screws; (c) assessing the influence of condylar screw number, distribution, and angulation, etc. This information can benefit biomedical engineers in designing or evaluating DFLPs, as well as orthopedic surgeons in choosing the best DFLPs for their patients.

Multimodal Local Resonators for Low-Frequency Amelioration of Acoustic Black Holes.

Acoustic black holes (ABHs) are effective at suppressing vibrations at high frequencies, but their performance at low frequencies is limited. This paper aims to improve the low-frequency performance of ABH plates through the design of a metamaterial acoustic black hole (MMABH) plate. The MMABH plate consists of a double-layer ABH plate with a set of periodic local resonators installed between the layers. The resonators are tuned to the low-frequency peak points of the ABH plate, which are identified using finite element analysis. To dissipate vibration energy, the beams of the resonators are covered with damping layers. A modal analysis of the MMABH plate is performed, confirming its damping effect over a wide frequency band, especially at low frequencies.

Hydrodynamic Cavitation as Pretreatment for Removal of Hardness From Reverse Osmosis Reject Water

In the present investigation, the treatment of reverse osmosis reject water hardness by hydrodynamic cavitation with the addition of sodium bicarbonate was studied. Hydrodynamic cavitation (HC), which is formed as a result of fluid pressure and velocity variation, has attracted great attention in industrial wastewater treatment due to its simple design and ease of operation. The influence of wastewater recirculation flow rate and the number of holes in the metal plate on the percentage removal of calcium hardness was studied. The study used a two-factor factorial design with three levels, plates with( 3, 5 and 9 holes)and a recirculation flow rate of (0.6, 1 and 1.5 L/min) with a treatment time of 60 minutes. Calcium hardness, total dissolved solids, pH and liquid temperature were evaluated as a function of time. The results show that as the flow rate and the number of orifices increase, the percentage of hardness removal increases. A linear correlation of hardness removal with respect to flow rate and number of orifices in the metal plate is also observed. For the recirculation flow rate of 1.5 L/min and a plate with 9 holes, a maximum removal rate of 66.76 % was achieved. It was also observed that the temperature increases as a function of time, reaching up to 75°C, while pH and total dissolved solids decrease during the treatment time. Hydrodynamic cavitation represents an environmentally friendly mechanical treatment technology and, considering that the removal efficiency is higher than 60%, it is an alternative as a pretreatment for the removal of water hardness.

Experimental and numerical analysis of impingement temperature effect on the sacrificial plate's hole formation during nuclear severe accident

Liquid metal breaching onto a metal plate is an important aspect that needs to be considered in the nuclear severe accident analysis. This relates to the downward relocation of molten material to the supporting system such as sacrificial grid plate and lower head while accident happened. The molten core material impinged the sacrificial grid plate which was quenched before interacted with reactor pressure vessel. The present study aims to investigate the dynamic behaviors of holes formation due to liquid metal jet impingement onto a metal plate at initial temperatures 423 K, 473 K, and 523 K. The experiments and numerical simulation were performed with molten Wood's Metal and 5 mm thickness of Lead Bismuth Eutectic plates. The modified Moving Particle Semi-Implicit method was used to perform the numerical calculation based on the particle movement. The results showed that the plate was locally melted by the heat supplied from the liquid metal jet and induced the penetration. A larger amount of liquid metal stayed, then liquid metal pool was formed when the liquid temperature jet was lower. The temperature variation resulted unsignificant change of hole size diameter on both surfaces. The formed hole sizes in the plate's top and bottom surfaces were around 5.7–14 mm and 3.7−5 mm, respectively. The required time for the liquid metal penetration was shorter when the liquid metal temperature was higher. The increase of conduction heat transfer during the solidification of liquid metal could decrease the Nusselt number at the stagnation zone. The findings show that the experiment and numerical results can predict the sacrificial grid plate's hole formation and dynamic mechanism within critical time of molten core material impingement.

The realization of parallel airflow after flow rectification by the perforated plate under complex inflows

The parallel push-pull ventilation system uses uniform, low turbulence, and wide parallel airflow to achieve low diffusion transport of pollutants and reduce the system's energy consumption. Complex inflows caused by local connectors (fans, elbows, and reducers) in front of the air supply device seriously affect the air supply distribution. Currently, most existing studies focus on the performance of parallel push-pull ventilation systems, while lacking theoretical support and parameter guidance to rectify these complex inflows into parallel airflow. This study investigates parallel airflow after rectifying various complex inflows using perforated plates. Within the study context, three typical complex inflows models (fan, elbow, and reducer inflows) are established using dominant numerical and supporting experimental methods. In addition, the rectification effects of inflow velocity, porosity, and hole size of the perforated plate on various complex inflows are compared. The results show that the perforated plate's porosity and hole size should be reasonably matched under different complex inflows to achieve a uniform and low turbulence parallel flow. The perforated plate should have a porosity between 40% and 55% and a dimensionless hole size between 0.014 and 0.031 for elbow and reducer inflows. Swirling flow causes a reduction in the perforated plate's rectification capacity for fan inflow, requiring lower porosity and hole size, while also meaning that the resistance increases significantly. Overall, the study results are anticipated to aid in achieving supply airflow with parallel airflow.

Damage behavior of extra-wide reinforced concrete box girder with multiple chambers under repeated explosive loads: Testing and numerical simulation

Explosive tests of scaled girder specimens and numerical simulations of prototype girder segments were implemented to study the dynamic response and failure characteristics of extra-wide reinforced concrete box girders subjected to repeated explosions. First, a segmental girder specimen was manufactured at a reduced scale of 1:3 based on the prototype girder of a real bridge. The damage behavior of the specimen was tested by detonating two 3-kg TNT (trinitrotoluene) grains in sequence at a height of 0.40 m above the center of the middle chamber. Second, LS-DYNA software was used to simulate the explosive response of the specimen. The reliability of the numerical simulation method was verified by comparing its results with test data. Finally, the effects of different TNT equivalents, detonation positions, and repeated explosion modes on the anti-explosion performance of the prototype girder segment are simulated. The results showed that the holes in the top plate of the middle chamber of the girder specimen were 41.50 cm × 45.50 cm and 56.80 cm × 63.50 cm along the longitudinal and transverse directions, respectively, under the two explosions. The concrete at the bottom of the top plate peeled off over a wide area, and cracks appeared in the bottom plate close to the supports. In comparing the simulated damage behavior of different girder segment types along the transverse direction, the dynamic response of the T-beam section segment was found to be greater than that of the box section segment under the same explosive charge. The maximum response was located at the road centerline. Moreover, the degree of damage to the girder was more severe under repeated explosions with a certain amount of charge compared with that under a single explosion with twice the amount of charge. The degree of damage to the web, bottom plate, and crossbeam caused by the explosions in sequence from outside to inside the box with two 200-kg TNT grains was more severe than that caused by a single explosion of 400-kg TNT grains. Simultaneous detonations at multiple positions severely degrade the bridge traffic capacity.

Trajectory of bolt and length of plate in femoral neck system determine the stability of femur neck fracture and risk of subsequent subtrochanteric fracture : a finite element analysis

BackgroundThis study aimed to analyze the differences in the stability of fractures, stress distribution around the distal-most screw according to the length of the plate and the trajectory of the bolt in Pauwels type III femoral neck fracture using the femoral neck system (FNS).MethodsFinite element models of Pauwels type III femoral neck fractures were established with surgical variations in the trajectory of the bolt (central, inferior, valgus, and varus) and length of the lateral plate (1- and 2-hole plate). The models were subsequently subjected to normal walking and stair-climbing loads.ResultsThe screw-holding cortical bone in subtrochanter in the model with a 2-hole plate and the bolt in the inferior trajectory and the models with 1-hole or 2-hole plate and the bolt in valgus trajectory had shown greater maximum principal strain than the models with central or varus trajectories. The gap and sliding distance on the fracture surface were larger with inferior or varus trajectories of the bolt and smaller with the valgus trajectory of the bolt under both loads, compared to those of the central trajectory.ConclusionFor the fixation of Pauwels type III femoral neck fracture, the trajectory of the FNS bolt and the length of the plate affect the mechanical stability of the fracture and the strain of cortical bone around the distal-most screw. The surgical target should stay on the central trajectory of the bolt and the 2-hole plate’s mechanical benefits did not exceed the risk.

Coupled versus energetic nonlocal failure criteria: A case study on the crack onset from circular holes under biaxial loadings

The phenomenon of brittle crack onset stemming from a circular hole in an infinite plate subjected to remote biaxial loading is herein investigated. A thorough analysis on the influence of the loading biaxiality reveals the existence of a wide casuistry in the sign and trend distributions of the stress field and Stress Intensity Factor, thus rendering it an exhaustive case study for assessing different failure criteria. Subsequently, three different approaches are used to determine the biaxial safety domains, two of which rely on the coupling of stress and energy conditions for failure, namely Finite Fracture Mechanics and Cohesive Zone Model, plus the purely energy-driven Phase Field model of fracture. Noteworthy, Finite Fracture Mechanics predicts the existence of a region in the loading space where failure is exclusively governed by the energy condition. Likewise, it is mathematically proven that the system of equations governing Dugdale's Cohesive Zone Model is equivalent to the first-order minimization condition of the energy balance, the resultant predictions being fairly close to those obtained by Finite Fracture Mechanics. Lastly, the Phase Field model of fracture is numerically implemented in the context of Finite Elements while paying special attention to the choice of the energy decomposition, whereof two are implemented: No-Decomposition and No-Tension decomposition. Specifically, the latter showcases satisfactory agreement with both Finite Fracture Mechanics and Dugdale's Cohesive Zone Model, thus posing a solid contender for studying complex fracture scenarios upon combined tension-compression stress states.

Investigation on heat transfer and ablation mechanism of CFRP by different laser scanning directions

Carbon fiber reinforced plastic (CFRP) is widely applied to aviation, medical, and motorbike industry fields, thanks to its excellent performances of mechanical properties and corrosion resistance. Nanosecond pulsed laser is an efficient method for machining microchannels and holes in CFRP plates. The anisotropic heat transfer of CFRP leads to a complex mechanism of laser machining under different scanning directions (0°, 30°, 45°, 60°, 90°). A numerical model considering heterogeneity and anisotropy of nanosecond laser processing CFRP was established by COMSOL Multiphysics. By comparison of simulation and experiments under different scanning directions, the deviation of microchannel width between simulation and experimental ranges from 5.01% to 16.99%. The ablation mechanism of laser processing CFRP under different scanning directions was investigated. It demonstrates that the width of the heat affected zone (HAZ) and ablation increases with the scanning angle increasing, while decreasing with the scanning speed increasing. In addition, when compared to the scanning direction of 90°, the processing efficiency increases by 55.36%, while the width of the HAZ decreases by 55.01% when compared to the scanning direction of 0°. An optimal laser scanning speed of 630 mm/s is used to obtain the open hole with minimal HAZ and thermal damage.

Experimental study on damage aftereffect of several types of metallic energetic fragments

Metallic energetic fragments are the most widely used and technologically mature damage fragments at present. In this study, four types of typical tungsten/zirconium (W/Zr) energetic fragments are examined by static explosion test, and the penetration, hole enlargement, and ignition performance and characteristics of different fragment materials are investigated. The results show that all the four W/Zr energetic fragments have good anti-detonation and penetration capabilities, which can effectively penetrate 6 mm thick Q235 steel plate, aluminum spacer plate and fuel tank behind the target at impact velocity of 1050 m/s. 1#, 2# and 4# energetic fragments exhibit significant behind-target hole enlargement effect, and the enlarged area of holes in the aftereffect aluminum plate behind the steel plate with a spacing of 10 cm is 6~8 times the cross-sectional area of the original fragment, and the enlarged hole area of the fuel tank (outlet) behind the aluminum plate is 12~14 times the cross-sectional area of the original fragment. 3# fragments has weaker behind-target hole enlargement effect. Low-density 2# and 4# fragments can ignite the aviation kerosene tank behind the target, and 4# fragments show the best ignition effect. There is an internal consistency between hole enlargement capability on the aftereffect target of energetic fragments and the behind-target ignition capability. Without sacrificing the anti-detonation and penetration performance, low-density energetic fragments can be preferentially selected to ensure the behind-target damage effect.

THE BELFAST TECHNIQUE FOR DEFORMITY CORRECTION OF FEMORAL COXA VARA IN OSTEOGENESIS IMPERFECTA: A NOVEL PLANNING AND SURGICAL TECHNIQUE

IntroductionOsteogenesis imperfect (OI) is a geno- and phenotypically heterogeneous group of congenital collagen disorders characterized by fragility and microfractures resulting in long bone deformities. OI can lead to progressive femoral coxa vara from bone and muscular imbalance and continuous microfracture about the proximal femur. If left untreated, patients develop Trendelenburg gait, leg length discrepancy, further stress fracture and acute fracture at the apex of the deformity, impingement and hip joint degeneration. In the OI patient, femoral coxa vara cannot be treated in isolation and consideration must be given to protecting the whole bone with the primary goal of verticalization and improved biomechanical stability to allow early loading, safe standing, re-orientation of the physis and avoidance of untreated sequelae. Implant constructs should therefore be designed to accommodate and protect the whole bone. The normal paediatric femoral neck shaft angle (FNSA) ranges from 135 to 145 degrees. In OI the progressive pathomechanical changes result in FNSA of significantly less than 120 degrees and decreased Hilgenreiner epiphyseal angles (HEA). Proximal femoral valgus osteotomy is considered the standard surgical treatment for coxa vara and multiple surgical techniques have been described, each with their associated complications. In this paper we present the novel technique of controlling femoral version and coronal alignment using a tubular plate and long bone protection with the use of teleoscoping rods.MethodologyAfter the decision to operate had been made, a CT scan of the femur was performed. A 1:1 scale 3D printed model (AXIAL3D, Belfast, UK) was made from the CT scan to allow for accurate implant templating and osteotomy planning. In all cases a subtrochanteric osteotomy was performed and fixed using a pre-bent 3.5 mm 1/3 tubular plate. The plate was bent to allow one end to be inserted into the proximal femur to act as a blade. A channel into the femoral neck was opened using a flat osteotome. The plate was then tapped into the femoral neck to the predetermined position. The final position needed to allow one of the plate holes to accommodate the growing rod. This had to be determined pre operatively using the 3D printed model and the implants. The femoral canal was reamed, and the growing rod was placed in the femur, passing through the hole in the plate to create a construct that could effectively protect both the femoral neck and the full length of the shaft. The distal part of the plate was then fixed to the shaft using eccentric screws around the nail to complete the construct.ResultsThree children ages 5,8 and 13 underwent the procedure. Five coxa vara femurs have undergone this technique with follow-up out to 62 months (41–85 months) from surgery. Improvements in the femoral neck shaft angle (FNSA) were av. 18o (10–38o) with pre-op coxa vara FNSA av. 99o(range 87–114o) and final FNSA 117o (105–125o). Hilgenreiner's epiphyseal angle was improved by av. 29o (2–58o). However only one hip was restored to <25o. In the initial technique employed for 3 hips, the plates were left short in the neck to avoid damaging the physis. This resulted in 2 of 3 hips fracturing through the femoral neck above the plate at approximately 1 year. There were revisions of the 3 hips to longer plates to prevent intra-capsular stress riser. All osteotomies united and both intracapsular fractures healed. No further fractures have occurred within the protected femurs and no other repeat operations have been required.ConclusionsSurgical correction of the OI coxa vara hip is complex. Bone mineral density, multiplanar deformity, a desire to maintain physeal growth and protection of the whole bone all play a role in the surgeon's decision making process. Following modifications, this technique demonstrates a novel method in planning and control of multiplanar proximal femoral deformity, resulting in restoration of the FNSA to a more appropriate anatomical alignment, preventing long bone fracture and improved femoral verticalization in the medium term follow-up.

Geometric Error Parameterization of a CMM via Calibrated Hole Plate Archived Utilizing DCC Formatting

This study implemented the measurement results and administrative information obtained from the hole plate into the Digital Calibration Certificate (DCC). The DCC comprises three parts: Norms and Standards, Hierarchical Structure, and XML as Exchange Format. DCCs play a significant role in the field of metrology and statistics by ensuring data interoperability, correctness, and traceability during the conversion and transmission process. The hole plate is a length standard used for two-dimensional geometric error measurements. We evaluated the accuracy of the high-precision coordinate measuring machine (CMM) in measuring a hole plate and compared the measurement error results obtained from the hole plate with those of the laser interferometer, autocollimator, and angle square. The results show that the maximum difference in linear error is −0.30 μm, the maximum difference in angle error is −0.78″, and the maximum difference in squareness error is 4.54″. The XML is designed for machine-readability and is modeled and edited using the XMLSpy 2022 software, which is based on information published by PTB. The administrative management and measurement results tasks are presented in PDF format, which is designed for human-readability and ease of use. Overall, we implemented the measurement results and information obtained from the hole plate into the DCC.