NEW GENERATION JEWELRY WEIGHING SYSTEM
Patent Information
- Authority / Receiving Office
- TR · TR
- Patent Type
- Patents
- Current Assignee / Owner
- KANSU BAKIR
- Filing Date
- 2025-07-23
- Publication Date
- 2026-06-22
Smart Images
Figure 00000019_0000 
Figure 00000019_0001 
Figure 00000019_0002
Abstract
Description
1 TARIFF NEW GENERATION JEWELRY WEIGHING SYSTEM Technical area 5 The invention relates to weighing and monitoring hanging items used in the jewelry industry. It relates to a system, particularly with the suspension of jewelry products. capable of determining weight and quantity with high precision, unaffected by external environmental factors. independently operating, with data sharing and analysis infrastructure, compared to centralized systems. It relates to an integrated jeweler's scale system. 10 The invention involves the use of hanging or mobile jewelry in jewelry stores, weighing 0.1 grams. Total weight and quantity with measurement accuracy and ±1 gram measurement precision. It relates to a weighing system that performs the calculation. State of the art 15 The jewelry sector involves the buying, selling, and trading of products with high monetary value. including its enclosure, where security and precision requirements are at the highest level. It is one of the areas of trade. Therefore, basic factors such as weight, quantity and type of products are considered. Accurate, reliable, and rapid assessment of their characteristics is of great importance. Manual measurement and recording processes carried out using traditional methods have decreased in efficiency over time. This leads to declines; human error, security vulnerabilities, and inventory tracking problems. The physical movements of jewelry, especially when displayed in showcases and display areas, and These changes create operational risks that are difficult to monitor manually. Therefore... The need for integrated, precise, and intelligent weighing systems in jewelry stores is increasing day by day. is increasing. 25 In the jewelry industry, the value of traded products is calculated based on grams. And trading is mostly done through high-cost assets. Therefore, 2 Accurately determining the weight of products, even with the smallest deviations, is crucial. This is important. Manual measurement systems are insufficient in achieving this accuracy. Measurement errors, in addition to causing financial losses, also undermine customer trust. It can cause damage. Automatic weighing systems, however, have an accuracy of 0.1 grams. By providing this, it prevents such errors and secures transactions. 5 However, jewelry stores involve a lot of physical movement, with customers interacting with the products. a system where they frequently check and sales assistants take products from the display case and return them This is the issue. During this movement, products may be missing, displaced, or accidentally... Situations such as incorrect placement can be easily detected using traditional methods. It is not possible to do so. Thanks to integrated weighing systems, items taken from the hanger or replaced with 10 Every product placed is automatically tracked and recorded in real-time. In this way, product movement is made transparent and security risks are minimized. It is being downloaded. In addition, the fact that weighing systems have a digital data infrastructure facilitates sales and inventory. It provides high efficiency in management processes. It shows when the product was suspended, which 15 Information such as when the transaction was made by the employee and at what time the sale took place. This data is automatically collected in the system. This information is used for both internal audits and customer relations. It provides transparency in this regard. It also works integrated with accounting systems. It strengthens inventory accuracy and reporting processes. Finally, the reduction in reliance on the human factor in the use of such systems is a major advantage. This reduces the risk of operational errors while allowing personnel to focus on more strategic tasks. It enables processes such as weighing, recording, checking, and analysis to become automated. It saves time and contributes to the professionalization of business processes. This This situation directly increases not only internal business efficiency but also customer satisfaction. In the known state of the art, the current weighing standard used in the jewelry industry is 25. In these systems, continuous and instantaneous weight measurements are performed. In these systems, Although the user is provided with weight data that is updated at all times, the measurement results change over time. It loses its reliability due to various external factors, especially the environment. Temperature changes, air conditioning currents, open and closed positions of hanging systems The physical oscillation differences experienced between them negatively affect the measurement accuracy. 30 It has an effect. 3 With the increase in the number of measurement points in existing systems, the overall system will benefit from this increase. The total risk of deviation also increases, and small weight variations are interpreted as product variations. This can be detected. This situation can lead to false alarms and unnecessary problems for the user. This can lead to misdirection, resulting in security interventions and even suspicions of theft. This opens up a gap, especially in jewelry products that are low in weight but high in value. Such deviations create serious reputational and financial losses for businesses. In some applications, a separate weighing module is integrated into each hanger. However, This method places a significant load on the system's communication infrastructure, affecting the network. This causes slowdowns and connection disruptions in traffic. Increased system Its complexity affects not only performance but also maintenance costs and failure rate. It also increases the risk. Current systems are resistant to sudden, user-induced contact or forceful interventions. There are no shock-absorbing (antishock) measures in place. This deficiency is particularly noticeable. In case of unintentional physical contact that may occur during daily operations, the device This leads to calibration deterioration and measurement errors. Calibration 15 This deterioration reduces both the reliability of measurements and the users' trust in the system. It undermines trust. Furthermore, the lack of lateral load balancing mechanisms in existing systems, This requires the products to be placed on the rack in a balanced manner. User-generated. In case of incorrect or unbalanced placement, the system may experience measurement deviation; 20 This can result in issues such as incorrect inventory records, missing or excess weight alarms. This situation gives rise to problems, especially when untrained personnel are employed. This is observed more frequently in stores. Although current systems can detect when products are taken off the rack and put back on, The systems usually provide information about which product was taken from which rack in the sales 25 It does not inform the user before the event takes place. Therefore, the product sale... If the hangers are moved between before the event occurs, which hanger belongs to which hanger? The extent of the deviation cannot be accurately tracked, leading to inaccurate inventory. This can lead to discrepancies in the data, especially with hangers having different calibration tolerances. Data accuracy weakens further during transitions between these sources. 30 4 In addition, current systems mostly provide passive information; that is, they only provide information. It reports the weight change, but doesn't specify when, by whom, and through what process this change occurred. It does not analyze and record in detail what happened within it. This situation affects sales and the creation of a holistic monitoring and reporting process in terms of inventory management obstacles. 5 In addition, a significant portion of existing systems are integrated with central databases. It is either not working or only has limited data transfer capacity. This situation varies. information integrity between branches, mobile sales points or the head office This makes it difficult to ensure and necessitates manual supervision in business processes. This is increasing. Lack of integration is particularly prevalent in countries undergoing digital transformation. This poses a major disadvantage for jewelry businesses. It is because of all these technical shortcomings and implementation difficulties that both measurement to increase reliability and to make user, inventory and sales processes more efficient and A need arose for a new system developed to enable integrated management. The invention developed in this context eliminates the shortcomings in existing systems; 15 An integrated solution in the areas of sensitivity, security, data tracking, and user interaction. It offers. Brief Description of Find The present invention meets the aforementioned requirements and overcomes all the disadvantages. with a new generation jeweler's weighing system that eliminates the need for manual weighing and brings some additional advantages. It is related. The purpose of the invention is to measure the weights used in the jewelry industry. The aim is to increase its accuracy and security, and to correct user-generated and systemic errors. The goal is to minimize deviations. The invention aims to improve the quality of weighing processes by protecting against external factors (temperature, time, climate, etc.). It offers a system that operates independently (lighting, etc.). Accordingly, specifically improved antishock (4.3)) mechanism, which impairs weighing accuracy It protects the system against physical impacts. The invention enables the system to take measurements solely through user interaction, regardless of time or other factors. It prevents erroneous weight variations due to environmental factors. Thus The system does not weigh anything unless the user touches it, which prevents false alarms. It is passing. The advanced sensor structure, capable of measuring angle and acceleration along the XYZ axis, monitors movements in the suspended frame. It can analyze in detail, even detecting forces as low as ±3N. It only allows the system to take measurements during actual physical interventions. Mechanical design with lateral load balancing capability prevents products from being suspended incorrectly. It eliminates measurement deviations caused by placement and the system It strengthens its resolve. The invention involves a temperature sensor and learning technology for calculating time-dependent elasticity. an electronic control unit capable of doing so, a temperature-compensated weight sensor, and With its structure resistant to cyclic loads, it is unaffected by temperature changes and remains stable for a long time. 15 It offers a remaining measurement system. This allows for the measurement of thermal energy, especially that originating from lighting. The effects have been minimized. The system features real-time data sharing and integration with a central database. Thanks to this, they can track product changes and sales processes in real time. Which rack the user took the product from, and the time differences between taking and billing are 20 It can report in detail. Performing intelligent filtering and data analysis from a single center, without setting up separate systems for each hanger. Software architecture reduces system load, slows down communication infrastructure, and It prevents breakages. In conclusion, the invention addresses physical stability, sensor safety, digital data accuracy, and human 25 numerous existing weighing systems include an error-excluding approach. to resolve the deficiency and improve the quality of weighing processes in jewelry making holistically. It increases. 6 The structural and characteristic features and all the advantages of the invention are given in the figures below. And thanks to the detailed explanation written with references to these figures, it becomes clearer. This will be understood as such, and therefore the evaluation will also take these forms and detailed explanations into account. This should be done taking that into consideration. Ways to Help Understand the Discovery The subject of this application is the "new generation jeweler weighing system," as shown in the attached figures. These figures are shown as follows: Figure 1: Picture of the jeweler's weighing system (1). Figure 2: Picture of the weighing module (4) in the jeweler's weighing system (1). 10 Figure 3: The steps showing how the jeweler's weighing system (1) works. "The drawings depicted in the images are generally representative, and absolute scale is not applicable." It is not necessary. Details that are not essential for understanding the present invention have been omitted. It is possible. Furthermore, it is at least largely identical or at least largely identical. Elements with identical functions are represented by the same number.” 15 Explanation of Part References Our invention, entitled "new generation jeweler's weighing system," which is the subject of this application, is attached. As shown in the figures, they are numbered, and the part corresponding to each number Their names are listed below. 20 1. Weighing System 2. Central Control Unit 3. User Interface / Screen 4. Hanging Weighing Module 4.1. Top Mounting Plate 25 4.2. Mounting Connector Tab 4.3. Shock Absorber 7 4.4. Weight Measurement Sensor 4.5. Bottom Sensor Mounting Plate 4.6. Intermediate Connection Bracket 4.7. Enclosure Box 5. Suspension Column 5 Explanation of the Process Steps This application concerns our invention entitled "new generation jeweler weighing system". The steps of the process are numbered as shown in the attached figures, and these numbers correspond to... The corresponding steps are listed below. 10 101. Operation of the weighing system (1) 102. Receiving an analog signal via the weight measurement sensor (4.4). 103. Processing Analog Signals 104. Uploading calibration data. 105. Applying filtering to measurement data 15 106. Calculating the average weight value. 107. Recording the raw weight value. 108. Calculation of the weight change value. 109. Commissioning of the accelerometer system. 110. Checking if there is user contact in the suspended case 20 110.1. If contact is detected: The accelerometer function is activated. 110.2. If there is no contact: The vibration control function is activated. 111. Checking the weight change. 111.1. If there is a weight change: A. Creating Difference Knowledge 25 B. Transfer of data to the system via the central control unit (2) C. Activation of the alarm system D. Displaying information and warnings on the user interface screen (3) 111.2. If there is no weight change: A. The system continues monitoring and no data transmission takes place. 30 112. Transfer of data to the central control unit (2) 8 113. Simultaneous application of all these operations for all suspension columns (5) 114. The weighing and change information is visually displayed to the user via the user interface (3). and / or audibly transmitted Detailed Description of Find 5 In this detailed explanation, the subject of the invention, the "new jeweler's weighing system," is only the subject of the matter. in order to better understand it and without creating any limiting effects It is explained. In addition, some elements have been prepared to help to better understand the invention, or The steps in the process can also be presented in different ways to ensure semantic coherence within the sentences. It may have been used. The elements or steps used in different expressions are actually... They represent the same numbered related element or process step. The invention concerns both the security of jewelry displayed in the jewelry sector. weighing system structured to ensure precise weighing processes (1); By processing the data from all suspension modules (5) simultaneously, the weight is 15 It evaluates changes, filters out potential errors, and issues alarms when necessary. implementing the systems. Also, the system's other software (sales, The system has an infrastructure that will work integrated with all inventory, databases, etc. the collection, processing, verification and system of weighing data Central Control Unit (2), which enables synchronization throughout, 20 Especially for jewelry store personnel, immediate information sharing and security. each of them plays a critical role in clearly monitoring their situations. The data from the suspension module (5) can be read to the user and The system presents the weighing results to the user in an interpretable format. 25 that communicate warnings and weight changes audibly and / or visually. User Interface / Screen showing transaction history (3), Independent measurement by being integrated into each jewelry hanger It provides; it senses physical intervention, unaffected by environmental factors. The system's basic weighing unit, which measures weight and is part of the suspension module. enabling it to be mechanically fixed to the system carriers and the same 30 9 Top Mount, which also has a surface structure suitable for sensor mounting. Its plate (4.1) provides the connection for fixing the module to the body, Mounting Bracket (4.2) which supports structural integrity, vibration and Protecting the sensor against impacts, maintaining measurement accuracy without compromise, Impact Absorber (4.3) 5 with elastomer outer coating and stainless steel inner structure (Antishock) detects the weight of jewelry with an accuracy of 0.1 grams, and its temperature sensor. Compensated electronic Weight Measurement Sensor (4.4), weight Alt, which secures the sensor to the system housing and maintains measurement stability. Sensor Mounting Plate (4.5), shock absorber, sensor and housing Ara 10 is a structure that provides mechanical connection between them and balances vibrations. The mounting bracket (4.6) protects all module components from the external environment (dust, impact, designed to protect against moisture, while also being suitable for maintenance and cable routing. The Hanging Weighing Module (4), which includes the Housing Box (4.7), carrying the suspension weighing modules and forming the physical backbone of the system, 15 It is also possible to place each module independently in a hanger. Column (5) It includes. The subject of the invention is the Weighing System (1); which enables the operation of the entire jeweler's monitoring system. It is the main structure. Weighing modules, weight sensors, accelerometers integrated into the hangers, 20 It includes wired / wireless communication units and control software. The system The initiation of measurement cycles, monitoring of measurement cycles, and detection of weight changes are all done through this system. is carried out. Central Control Unit (2); where data from all suspension modules is collected and processed and is the main control center where it is managed. It simultaneously processes data from different hubs. 25 It evaluates, manages systemic alarm situations, and transmits data to the user. It organizes information. It also sends information to external databases or cloud infrastructures. It enables the transfer. User Interface / Screen (3); Visual / audio interaction between the system and the user It is an information unit. It provides information such as weighing results, weight changes, and alarm status. 30 It displays this on the screen. If necessary, it also activates an audible warning system to alert the user. It provides information. It builds trust on the customer side and allows transaction tracking and monitoring on the staff side. It facilitates intervention. Hanger Weighing Module (4); It is an independent weighing system integrated into each hanger. Weight measurement sensor, shock absorber, accelerometer, mounting plates and housing box It is a compact unit containing 5 sensitive parts. The product is carefully attached or removed during the hanging process. It provides measurement and motion detection. This module handles the system's core measurement functions. executes. The Top Mounting Plate (4.1) enables the suspension weighing module to be fixed to the suspension column. The holes are designed to accommodate the mounting of the weight sensor and other components. It is the primary load-bearing surface in terms of the system's durability and stability. 10 Mounting Bracket (4.2); Securely attaches to the suspension structure of the upper mounting plate. It is a connecting device that ensures fixation. Mechanical safety of the system assembly. provides. Shock Absorber (4.3); Absorbs physical shocks and sudden movements to the system. 90– 15 with 120 Shore elastomer outer coating and 304 sandblasted stainless steel inner structure. It prevents measurement deviations caused by vibration, extends sensor life, and improves measurement accuracy. It increases its credibility. Weight Measurement Sensor (4.4); High-performance sensor that measures the weight of jewelry hung on a hanger. It is a high-sensitivity sensor. It operates with an accuracy of ±1 gr and a precision of 0.1 gr. Temperature Thanks to its compensation feature, it provides accurate measurements without being affected by temperature. 20 Bottom Sensor Mounting Plate (4.5); Shock absorbing part and housing of the weight sensor. It ensures that it is secured in its box. It keeps the sensor stable, prevents it from moving, and... It ensures its accuracy over the long term. Intermediate Connection Bracket (4.6); Structural balance between the shock absorber and the housing. It is a transition element that provides support for mechanical connection and optimizes force distribution. does. Enclosure Box (4.7); Closed box that protects the entire weighing module from external environmental influences. It is a steel housing structure. It provides protection against dust, moisture, impact, and external contact. Cable It includes passages, maintenance access, and fixing holes. 11 The hanging column (5) is the vertical support structure on which the products are displayed in the store. It carries multiple hanging weighing modules (4). It is the physical supporting backbone of the system. It plays both an aesthetic and functional role. Regarding Figure 3: 101. With the step of operating the weighing system (1), the hanger weighing module (4) is put into operation. It is received and put into a ready position. 102. Step of receiving analog signal from weight measurement sensor (4.4) and weight The measurement sensor (4.4) becomes active and detects the analog value of the load attached to the suspension. 103. In the analog signal processing step, the analog signal received from the sensor is processed by the system. It is converted into digital data by the software and made ready for measurement. 10 Step 104: Loading calibration data into the weighing system beforehand. The defined reference calibration value is transmitted. Step 105: Applying Filtering to Measurement Data: Analog signals are filtered. It is processed using algorithms (e.g., Kalman) to eliminate external influences. Step 106: Calculating the average weight value with the new measurement value 15 Historical data are compared to determine if there are any significant changes. Step 107: Recording the raw weight value provides the current weight information of the hanger. It is stored in system memory. 108. The weight difference calculated with the step of calculating the weight change value is 1 If it is 20 grams or more, it is considered an exchange. 109. Commissioning step of the accelerometer system together with the shock absorber (4.3). The accelerometer system becomes active. Step 110: Checking if there has been any user contact with the suspended device, including physical contact. If contact is detected, the system confirms this; if contact is present: Acceleration measurement function. If no contact is found, the vibration control function is activated. 25 111. Acceleration and weight data from the step of performing weight change control. By matching, the actual weight change is verified. If there is a weight change, the difference information is provided. By creating it, the data is transferred to the system via the central control unit (2), alarm The system is activated and information and warnings are displayed on the user interface screen (3). If there is no weight change: the system continues monitoring and any data transmission is stopped within 30 days. It cannot be done. 12 112. With the step of transferring the data to the central control unit (2), all suspensions Information from the modules is collected in the KEeylabs control unit. 113. The step of applying all these processes simultaneously to all suspension columns. The system applies these operations simultaneously to all suspension columns. 114. Step of delivering final information to the user: weighing and change information, user 5 It is transmitted visually and / or audibly through the interface (3). The working principle of the Weighing System (1) which is the subject of the invention The jewelry weighing and monitoring system that is the subject of this invention is specifically designed for display cases or hangers. weight and variations of jewelry products displayed in their systems It has been developed to ensure precise monitoring. The system as a whole is 10 weighing system (1), central control unit (2), user interface / screen (3), hanger weighing It consists of several elements, including module (4) and suspension columns (5). The working process begins with the initiation of the weighing system (1). At this stage, the relevant software It comes into play and each hanger weighing module (4) is activated. The product on the hanger When suspended, analog weight signals are received via the weight measurement sensor (4.4). This 15 The sensor, with its high-precision loadcell structure, detects changes at the gram level. It can detect signals. The incoming signals are processed by the microprocessor inside the module. and converted into digital data. Meanwhile, predefined calibration data for each hanger is entered into the software. It is called by and weight calculations are normalized according to this reference value. 20 By applying filtering to the measurement data, environmental interference and low-frequency interference are removed. Fluctuations or electrical noise signals are removed from the system. This filtering process... The process is carried out using Kalman or Fourier-based algorithms embedded in the software. is carried out. Based on the filtered data, the system uses 25 to detect whether there has been a weight change. It compares average values. The result of this comparison is... The obtained raw weight value is stored in the system memory and compared with subsequent measurements. It is stored accordingly. If the calculated weight difference is 1 gram or more, the system... The situation is identified as "change," and the alarm process is initiated. 13 It also works in integration with the shock absorber (4.3) included in the system. The accelerometer sensor is activated. This sensor measures directional acceleration and pulse along the XYZ axes. It provides information. At this stage, the system suspends the process if the user makes physical contact. It performs a contact analysis to determine if contact is present. If contact is detected, acceleration The measurement function is activated; if there is no contact, the system detects a movement caused by ambient vibration. 5 It activates the vibration function to determine if it is working. In light of all this data, the system can be concluded whether the change was the result of a genuine physical intervention. It analyzes whether there is a difference. If both physical intervention and weight change are confirmed, the difference is... The information is generated and sent to the central control unit (2). From there it is sent to the system network. is transmitted. At the same time, the user is informed with a visual and / or audible alert. This 10 Notifications are delivered via the user interface / screen (3). If the system does not detect weight changes or if these changes are based on user intervention. Otherwise, no action is taken and monitoring mode continues. However, the truth is... When a verified change is detected, the system goes into alarm mode, and the information is transmitted to the network. It is shared, and alert interfaces inform the user. 15 All these operations are performed simultaneously on multiple suspension columns (5) in the system. It is applied. Independent suspension weighing modules (4) are located on each suspension column. The system sends data to the central system, and the system provides real-time data from all hangers. can watch. The system also tracks measurement times, who intervened, along with weight variations, 20 The data also includes the time period between suspension and billing, as well as the descriptions of the products. It provides detailed analysis by matching it with the base. This allows for not only weighing but also... Sales operations, inventory tracking, and security processes are also integrated over time. It will be managed. In the advanced version of the system, the temporary weight due to temperature changes is 25. Digital temperature sensors have been integrated to prevent deviations. The sensors operate with an accuracy of ±0.2°C in the temperature range of -20°C to +80°C, and the system in a way that will maintain measurement stability against sudden temperature changes in its environment. It is supported by algorithms. This allows it to react to external factors such as sunlight or air conditioning, for example. Temperature variations caused by the source will not cause the system to inaccurate weighings. 30 It is being stabilized. 14 However, machine learning integrated into the system's motherboard (learning) based software module, mechanical stretching or It enables the system to adapt itself to effects such as systemic aging. By identifying measurement values that can change over time without actual load change, 5 The system learns its own behavior and calibrates by creating coefficients of variation. This structure prevents deviations. This ensures the system functions correctly in the long term. as well as ensuring its continued operation, when the weight sensor is nearing the end of its lifespan. An infrastructure that can anticipate situations and provide advance notice of technical service needs. It offers. 10 Thanks to these advanced features, the system has become resistant not only to environmental influences. It not only arrives; it also becomes an intelligent being capable of learning and interpreting its own behavior. It is transforming into a structure. Thus, the need for manual calibration is reduced, and the user System accuracy can be maintained without intervention, and maintenance processes It is becoming predictable. These components, included in the advanced version, weigh 15 by taking the system beyond classical measuring instruments, its dynamic adaptability and It is transforming into a new generation platform offering high operational reliability. In conclusion, the system described in the invention offers a solution to the measurement problems experienced in the jewelry industry. deviations, monitoring difficulties, security vulnerabilities, and technical issues such as data synchronization. Providing solutions to problems; high precision, reliability and holistic system 20 It provides integration.
Claims
REQUESTS 1. The invention improves both the safety and security of jewelry displayed in the jewelry industry. The weighing system (1) that provides precise weighing processes is characterized by: by processing data from all suspension modules (5) simultaneously, weight 5 It evaluates changes, filters out potential errors, and issues alarms when necessary. implementing the systems, collecting and processing all weighing data, enables verification and system-wide synchronization. central control unit (2), data from each hanger module (5) can be read to the user and 10 The system presents the weighing results to the user in an interpretable format. that communicates warnings and weight changes audibly and / or visually, User interface / screen showing transaction history over time (3), Independent measurement by being integrated into each jewelry hanger 15 that provides, detects physical intervention, and is unaffected by environmental factors. a device that measures weight, protects the sensor against vibration and shock, and measures Internal shock absorber (4.3) and jewelry that maintains its accuracy without deterioration. electronic weight measuring sensor that detects weight with high precision (4.4) including hanger weighing module (4), carrying the suspension weighing modules and forming the physical backbone of the system, 20 ensuring that jewelry is displayed in an organized manner within the store, also a hanger where each module can be placed independently. column (5) It includes.
2. The weighing system (1) conforming to Claim 1 is characterized by the fact that the weighing system (1) is different from the other 25 It has the infrastructure to work integrated with its software (sales, inventory, database, etc.). It is the fact that.
3. The weighing system (1) conforming to Claim 1 is characterized by the mechanical suspension module (5). enabling it to be fixed to system carriers and also acting as a sensor. The hanger weighing 30 includes a top mounting plate (4.1) with a surface structure suitable for mounting. It includes module (4). 16 4. The weighing system (1) conforming to claim 1 is characterized by the module being fixed to the body. Mounting Bracket that provides connection and supports structural integrity. It includes the Suspension Weighing Module (4) which contains (4.2).
5. The weighing system (1) conforming to Claim 1, and its feature is; the weight sensor in the system 5 Lower Sensor Mounting Plate, which secures the sensor to the housing and maintains measurement stability. It includes the Suspension Weighing Module (4) which contains (4.5).
6. Weighing system (1) in accordance with claim 1, and its features include shock absorber, sensor and housing. Intermediate coupling is a structure that provides a mechanical connection between components and balances vibrations. It includes the Hanging Weighing Module (4) which includes its bracket (4.6).
7. The weighing system (1) conforming to Claim 1, and its feature is that all module components are external 10 Protected from environmental factors (dust, impact, moisture), and also suitable for maintenance and cable routing. It includes the Hanging Weighing Module (4) which contains the designed Enclosure Box (4.7).
8. The weighing system conforming to claim 1 is (1), and its feature is; 90–120 shore elastomer outer vibration welded, with a coating and an internal structure of 304 sandblasted stainless steel. 15 that prevents measurement deviations, extends sensor life and increases measurement reliability It contains shock absorbers (4.3).
9. The weighing system is in accordance with Claim 1 (1), the characteristic of which is; the suspended jewelry a temperature-compensated device that measures weight with an accuracy of ±1 gr and a precision of 0.1 gr. Thanks to its feature, this weight measurement sensor provides accurate measurements without being affected by heat. (4.4) includes. 20 10. The invention improves both the safety and security of jewelry displayed in the jewelry industry. This is the working method of the weighing system (1) which provides precise weighing processes. its feature; Operation of the weighing system (1) (101), Receiving an analog signal via the weight measurement sensor (4.4) (102) 25 Processing of the analog signal (103) Loading calibration data (104) Applying filtering to the measurement data (105) Calculation of the average weight value (106) Recording of raw weight value (107) 30 Calculation of weight change value (108) Commissioning of the accelerometer system (109) Checking whether there is user contact with the suspended item (110) 17 Checking the weight change (111) Transfer of data to the central control unit (2) (112) Simultaneous application of all these operations for all suspension columns (5) (113) The weighing and change information is provided to the user via the user interface (3). (114) 5 It includes the steps involved in the process.
11. This is the working method of claim 10, and its feature is; Operation of the weighing system (1). (101), commissioning and readiness of the hanging weighing module (4) This includes the steps involved in the process of ensuring its success.
12. The working method of claim 10 is; via the weight measurement sensor (4.4) 10 Upon receiving the analog signal (102), the weight measurement sensor (4.4) becomes active and is suspended. The process involves detecting the analog value of the connected load.
13. The working method of claim 10 is; Processing of the analog signal (103), The analog signal received from the sensor is converted into digital data by the system software. It includes the steps involved in converting and preparing it for measurement. 15 14. This is the working method for claim 10, and its characteristic is: Loading calibration data. (104), the predefined reference calibration value of the weighing system This includes the transfer process step.
15. This is the working method related to claim 10, and its characteristic is; filtering the measurement data. (105) The application of analog signals is processed by filtering algorithms and external 20 It includes the steps involved in the process of removing the harmful agents.
16. This is the working method related to claim 10, and its characteristic is; the average weight value. (106) is calculated by comparing the new measurement value with past data, making it meaningful. This includes the step of checking whether any changes have occurred.
17. This is the working method for claim 10, and its characteristic is; recording the raw weight value. 25 (107) includes the step of taking the instant weight information of the suspension into the system memory.
18. This is the working method related to claim 10, and its characteristic is; the weight change value. calculation (108), change if the calculated weight difference is 1 gram or more It includes the process step of being accepted as such.
19. This is the working method related to claim 10, and its characteristic is; the activation of the accelerometer system 30 (109), activation of the accelerometer system working together with the shock absorber (4.3). The arrival process includes the next step. 18 20. This is the working method related to Request 10, and its characteristic is; Suspended user theme. checking that it is not there (110) If physical contact is detected, the system confirms this, If contact occurs: Accelerometer function is activated. If there is no contact: Vibration control function activation 5 It includes the steps involved in the process.
21. This is the working method related to Claim 10, and its characteristic is; Weight change control. to be done (111), Verification of actual weight variation by matching acceleration and weight data If there is a weight change, the difference information is generated and the data is sent to the central control unit 10 (2) Transfer to the system via, The alarm system is activated and information and warnings are displayed on the user interface screen (3). showing, If there is no weight change: the system continues monitoring and any data failure to transmit 15 It includes the steps involved in the process. 25