MULTI-PORT PNEUMATIC TRANSFER PROFILE DOCUMENT INTEGRITY VERIFICATION AND SECURE CLOSING SYSTEM

Abstract

This invention relates to a multi-port pneumatic transfer profile document security system that verifies the integrity of a group of documents temporarily removed from a container for use. The system comprises a container body, document placement tray, spatially separated pneumatic ports, port selection manifold, pneumatic actuation unit, pressure sensing unit, flow sensing unit, reference pneumatic channel, control unit, profiling unit, profile memory, profile comparison unit, blocking element, and final closing mechanism. Before the group of documents is removed from the container for use, controlled actuations are applied sequentially through the pneumatic ports, and the time-dependent pressure and flow responses generated in the other pneumatic ports are measured. An initial pneumatic transfer profile is generated from the physical responses between the different ports and stored in the profile memory.When the document group is returned to its container after use, the recorded pneumatic stimulation sequence is reapplied, and a return pneumatic transfer profile is created. The physical response components in the return pneumatic transfer profile are compared with the corresponding physical response components in the initial pneumatic transfer profile. If the physical response components meet the defined acceptance limits, the blocking element is withdrawn from the path of the final closing mechanism. If the defined acceptance conditions are not met, the blocking element remains in the path of the final closing mechanism.

Description

MULTI-PORT PNEUMATIC TRANSFER PROFILE DOCUMENT INTEGRITY VERIFICATION AND SECURE CLOSURE SYSTEM 1. TECHNICAL FIELD This invention addresses document security, physical verification of document integrity, and temporary use. Return control of document groups removed from a protected container for the purpose of pneumatic measurement systems, multi-point physical profiling systems and verification result dependent It relates to secure closing mechanisms. The invention specifically consists of a container body, a document holder, and spatially separated parts. separate pneumatic ports, pneumatic actuation unit, port selection manifold, pressure sensing unit, flow sensing unit, reference pneumatic channel, control unit, profile memory, pneumatic transfer profile generation unit, profile comparison unit, blocking element and This relates to a document integrity verification system that includes a final closing mechanism. The system described in the invention refers to a nominal number of sheets in a predetermined set of documents. sheet thickness, total weight, or identifying marks applied to the document It operates without interruption. The system processes the sheets of the document group before use. the time-dependent physical response of the air passages between them to controlled pneumatic stimulations The responses generate an initial pneumatic transfer profile. Roughly speaking, after use... Return pneumatic transfer profile under the same measurement cycle from the returned document group This is obtained. The profile comparison unit compares the return pneumatic transfer profile to the initial profile. It is compared with the pneumatic transfer profile. When the defined acceptance conditions are met, the final The movement path of the closing mechanism is released. Defined acceptance conditions. If not provided, the blocking element is in the path of the final closing mechanism. It remains. 2. STATE OF KNOWLEDGE OF THE ART Physical materials such as documents, books, and the like, before use, in the known state of the art. integrity through recording physical characteristics and remeasuring them after return. There are systems that carry out the control. Patent application number 35 US20190035239A1 concerns the use of private collection materials. the previous weight values ​​are recorded as a reference and when the material is returned The re-weighing process is explained. The current measurement value is compared with the recorded reference weight. 1 to 5 are compared, and values ​​found within the defined acceptance range are considered matched. This structure involves air passages between the sheets of the document group. Multi-port transfer profile by applying time-controlled stimulation from different pneumatic ports. It is not being generated. Also, the final closing element movement of the profile verification result. The direct transfer to the physical obstacle in its path is not explained. A controlled test signal to a safety container is described in patent application number US20110005282A1. implementation, storage of the response to the test signal as a calibration profile, and The comparison of the answers obtained in subsequent tests with the recorded profile is explained. The physical response measured in the structure in question relates to the safety container and a specific document. It does not represent pneumatic transfer pathways between the leaves of the group. Different ports Time-dependent pressure and flow responses generated between pairs are specific to the document group. Storing it in the form of a transfer matrix is ​​not explained. Patent number US7162932B2 describes the stacking of paper under controlled mechanical force. The measurement of deformation is explained. The force obtained at different force levels is described. The mechanical characteristics of the paper stack are determined from the deformation values. The subject matter of the structure is based on mechanical compression. Between the leaves of the document group. Measurement of natural air passages under multi-port pneumatic stimulation It is not explained. Patent number EP3436380B1 describes an air intake system for feeding paper to the top of the paper stack. The application and the determination of the upper leaf separation zone using sensors are explained. The system is designed for air separation of sheets for the paper feeding process. The implemented... Determine the time-dependent transfer response specific to the air transport document group, and use that response. keep it as a reference and arrange the returned documents according to that reference. Verification is not explained. Patent number US6264188B1 describes a device that blows air between sheets of paper in a paper feeder. The adaptive airflow system and vacuum supply structure are described. The system in question... It is designed for feeding papers one by one into the machine. A physical group of documents. time-dependent pressure between different pneumatic ports to determine its integrity and The recording of stream transfers as the initial profile is not explained. When current state-of-the-art solutions are considered together, the amount of paperwork... 35 references, storage of the physical response profile of the safety container, paper stacking Determining the mechanical compression characteristics and feeding air into the paper stack. Its implementation lies in separate technical fields. 2 5 The invention in question in the application is a natural air passage network between the sheets of a document group. It is used as a directly measured physical structure. Administered through the first pneumatic port. time-dependent stimulation created by controlled stimulation in the second, third and fourth pneumatic ports Responses are determined; inter-port transfer occurs as a result of different ports being stimulated sequentially. A multivariate initial pneumatic transfer profile is generated that includes the relationships. When the same set of documents is returned to the container after use, the recorded measurement cycle It is being reapplied. The resulting return pneumatic transfer profile is the initial pneumatic. It is compared with the transfer profile. The defined acceptance limits of the profile components. If this is the case, the blocking element will move out of the path of the final closing mechanism. is being withdrawn if the profile components do not meet the defined acceptance limits. The blocking element remains in the path of movement. Therefore, the technical difference of the invention lies in the pneumatic action that occurs between the sheets of a specific group of documents. The transfer network must be recorded as a physical reference before use, the same document re-measurement of the group after return under the same pneumatic stimulation cycle and obtained the physical movement path of the final closing mechanism of the obtained verification result It is the connection. 3. THE PURPOSE OF THE INVENTION The purpose of this invention is to remove a specific substance from a protected container temporarily for use. The integrity of the document group upon return can be physically verified without needing information on the number of sheets. The goal is to create a document security system that verifies the information. Another purpose of the invention is to create air passages between the sheets of a document group. Time-dependent response under controlled pneumatic stimulation, initial part of the document group. The goal is to record it as a pneumatic transfer profile. Another aim of the invention is to combine pressure transfers between different pneumatic ports into a single system. The goal is to define it as a multivariate physical profile rather than a measured value. Another aim of the invention is to produce a result of sequentially applied stimuli from different pneumatic ports. The goal is to create an inter-port transfer matrix for the document group. Another purpose of the invention is to provide an initial starting point for groups of documents that are returned to their containers after use. The goal is to re-implement the pneumatic stimulation sequence used in the profile. 35 Another objective of the invention is to achieve the initial pneumatic transfer profile and the return pneumatic transfer. The aim is to enable comparison of the profiles under the same physical measurement conditions. 3 5 Another objective of the invention is to investigate the effects of ambient pressure and pneumatic circuit changes on measurement. its effect normalized via a reference pneumatic channel with constant flow characteristics. to do. Another objective of the invention is to profile the pneumatic excitation sequence defined for each measurement cycle. Its function is to store the initial pneumatic transfer profile in its memory. Another objective of the invention is to consider the numerous physical response components in the rotation profile separately. The goal is to ensure that it is controlled within its limits. Another purpose of the invention is to provide a final shutdown when profile verification is not complete. with a physical element that prevents the mechanism from advancing to its final closing position. To prevent. Another purpose of the invention is to disable the blocking element when profile validation is complete. By pulling the closing mechanism out of its path, the final safety closure is released. It is to give up. Another purpose of the invention is to apply an identifying mark to a group of documents and to define the group of documents without using an identifying mark. Return integrity check without using total weight as a safety reference. to accomplish. 4. EXPLANATION OF THE FIGURES No form is included in the application. 5. EXPLANATION OF REFERENCES IN THE FIGURES Since no figures are included in the application, a reference list is not provided. DETAILED DESCRIPTION OF THE 6TH INVENTION 6.1 General structure 6.1.1 The invention describes a multi-port pneumatic transfer profile for document integrity verification and security. It relates to the shutdown system. 6.1.2 System; container body, lid, document holder, first pneumatic port, second pneumatic port, third pneumatic port, fourth pneumatic port, port selection manifold, pneumatic excitation unit, pressure sensing unit, flow sensing unit, reference pneumatic channel, control unit, profile generation unit, profile memory, profile comparison unit, It includes 35 blocking elements and a final closing mechanism. 6.1.3 The container body holds the document group subject to verification and the pneumatic system, It is the main structure that houses the electronic and mechanical components. 4 5 6.1.4 The cover encloses the top section of the document placement tray and during the measurement cycle It is a closing element that ensures the document group remains in its defined position. 6.1.5 Document placement bed, determined during the document group measurement cycle. It is the carrier section in which it is held in place. 6.1.6 First pneumatic port, second pneumatic port, third pneumatic port and fourth physical air that establishes flow communication with different edge regions of the pneumatic port document group They are transit connections. 6.1.7 Port selection manifold, flow between pneumatic excitation unit and pneumatic ports. It determines its path sequentially according to the measurement sequence. 6.1.8 The pneumatic stimulation unit applies a defined pressure magnitude to the selected pneumatic port and It applies pneumatic stimulation for a defined period of time. 6.1.9 Pressure sensing unit, time-dependent pressure sensitivity occurring in pneumatic ports where no stimulation is applied. It measures pressure changes. 6.1.10 The flow sensing unit measures the amount of air passing through the selected pneumatic flow path over time. It measures the change in dependence. 6.1.11 Reference pneumatic duct, internal calibration with constant geometry and flow resistance. It is the way. 6.1.12 The control unit controls the pneumatic excitation sequence, manifold positions, and sensing processes. profiling process, profile comparison process and positioning of the blocking element He / She is in charge. 6.1.13 Profile memory stores the initial pneumatic transfer profile and the excitation data for the measurement cycle. It keeps its series and acceptance limits confidential. 6.1.14 Profile comparison unit, response components in the return pneumatic transfer profile. with the corresponding response components in the initial pneumatic transfer profile It compares them. 6.1.15 Blocking element, which enters the path of the final closing mechanism and is used for verification. a movable that physically stops the transition to the final closing position when not completed It is a mechanical part. 6.2 Cover body and document holder 35 6.2.1 Cover body; bottom support section, side walls, cover seating surface, document placement It includes the bed, pneumatic unit compartment, control unit compartment and final closing area. 6.2.2 The lower support section bears the mechanical load of the document group and system components. It carries. 5 6.2.3 The side walls restrict the horizontal movement of the document group. 6.2.4 The lid seating surface is positioned on the lid body in the defined location when the lid is closed. It makes him / her come. 6.2.5 Document placement bed; base surface, first side positioning surface, second side positioning surface, front positioning surface and rear positioning surface It includes. 6.2.6 The base surface supports the bottom surface of the document group. 6.2.7 First side positioning surface and second side positioning surface document It determines the transverse position of the group. 6.2.8 Front positioning surface and rear positioning surface longitudinal of the document group It determines its location. 6.2.9 The edges of the document group must have the same dimensions as the air passage openings of the pneumatic ports. They are brought to these regions. 6.2.10 Position of the document group relative to the pneumatic ports when the cover is in the closed position. It is being fixed. 6.2.11 Document placement bed: Surface integrity measurement of document groups. It does not apply compressive force. 6.3 Pneumatic port structure 6.3.1 The first pneumatic port is located in the first side edge region of the document group. 6.3.2 The second pneumatic port is located in the second side edge area of ​​the document group. 6.3.3 The third pneumatic port is located in the leading edge region of the document group. 6.3.4 The fourth pneumatic port is located in the rear edge region of the document group. 6.3.5 Each pneumatic port; port body, air passage channel, port opening, manifold connection channel. and includes a sensor connection channel. 6.3.6 Port opening, flow communication through the gaps between the sheet edges of the document group. It is establishing. 6.3.7 Pneumatic connection between the air passage duct, port opening and port selection manifold. It constitutes. 6.3.8 The sensor connection channel allows the pressure within the port to be transferred to the pressure sensing unit. It provides 35. 6.3.9 Pneumatic ports with spatially separated measurement zones It constitutes. 6 5 6.3.10 When one pneumatic port is used as an stimulation port, the remaining pneumatic ports respond They function as ports. 6.4 Port selection manifold 6.4.1 Port selection manifold; manifold body, excitation inlet channel, first port channel, second port channel port channel, third port channel, fourth port channel, manifold selector element and manifold It includes a drive unit. 6.4.2 The stimulation inlet channel is connected to the pneumatic stimulation unit. 6.4.3 The first port channel is connected to the first pneumatic port. 6.4.4 The second port channel is connected to the second pneumatic port. 6.4.5 The third port channel is connected to the third pneumatic port. 6.4.6 The fourth port channel is connected to the fourth pneumatic port. 6.4.7 Manifold selection element, excitation inlet channel defined in the measurement sequence pneumatic It enables streaming communication via the port. 6.4.8 The manifold drive unit selects the manifold according to the selection command from the control unit. It moves the element to the defined port location. 6.4.9 Manifold selection element pneumatically excites a single excitation port at each measurement step. It connects to the unit. 6.5 Pneumatic stimulation unit 6.5.1 Pneumatic excitation unit; pump, excitation chamber, pressure regulating element, excitation It includes a valve and a pressure monitoring sensor. 6.5.2 The pump determines the defined pressure level for the measurement cycle in the excitation chamber. It constitutes. 6.5.3 The pressure regulating element adjusts the pressure in the stimulation chamber to the recorded measurement value. It brings. 6.5.4 The stimulation valve defines the flow path between the stimulation chamber and the port selection manifold. It opens within a short time. 6.5.5 The pressure monitoring sensor measures the initial pressure of the pneumatic stimulation and the pressure during the stimulation period. It measures the resulting pressure change. 35 6.5.6 Each pneumatic excitation includes: initial pressure, rise time, excitation time, and damping. It is defined by its duration. 6.5.7 The control unit determines the excitation parameters used when creating the initial profile. It stores this information in the profile memory. 7 5 6.5.8 The same excitation parameters are used in the return verification cycle. 6.6 Pressure and flow sensing system 6.6.1 The pressure sensing unit includes pressure sensors connected to each pneumatic port. 6.6.2 Pressure sensors measure port pressure at successive time points during each stimulation step. It measures. 6.6.3 The measured port pressure values ​​are transmitted to the control unit. 6.6.4 Flow sensing unit, flow between pneumatic excitation unit and port selection manifold. It is located on the way. 6.6.5 The flow sensing unit sequentially measures the pneumatic flow magnitude during each stimulation step. It measures at specific points in time. 6.6.6 The control unit measures pressure and flow with time information for the same measurement step. It is related. 6.6.7 Response data for each stimulation step: stimulation port, response port, stimulation start It is defined by time, pressure values, and flow rates. 6.7 Creating the initial pneumatic transfer profile 6.7.1 Initial pneumatic transfer profile, for use by the captain and document group. It is formed before extraction. 6.7.2 The document group is placed in the document storage tray. 6.7.3 The lid is brought to the closed measuring position. 6.7.4 The control unit initiates the measurement cycle. 6.7.5 In the first measurement step, the first pneumatic port is selected as the stimulation port. 6.7.6 Pneumatic stimulation is applied to the first pneumatic port. 6.7.7 On the second pneumatic port, the third pneumatic port and the fourth pneumatic port Responses over time are being measured. 6.7.8 In the second measurement step, the second pneumatic port is selected as the stimulation port. 6.7.9 On the first pneumatic port, the third pneumatic port and the fourth pneumatic port Responses over time are being measured. 6.7.10 In the third measurement step, the third pneumatic port is selected as the stimulation port. 35 6.7.11 On the first pneumatic port, the second pneumatic port and the fourth pneumatic port Responses over time are being measured. 6.7.12 In the fourth measurement step, the fourth pneumatic port is used as the stimulation port. is selected. 8 5 6.7.13 On the first pneumatic port, the second pneumatic port and the third pneumatic port Responses over time are being measured. 6.7.14 The profiling unit groups the measured cross-port responses under the same profile. It combines them. 6.7.15 Initial pneumatic transfer profile, different stimulation ports with different response ports It includes time-dependent transfer relationships between them. 6.7.16 Number of sheets in the initial pneumatic transfer profile document group. It is created without being used. 6.7.17 Initial pneumatic transfer profile without using nominal blade thickness is being created. 6.7.18 Total weight of the initial pneumatic transfer profile document group safety reference It is created without being used as such. 6.8 Physical response components of the transfer profile 6.8.1 The transfer response for each port pair is represented by a time-dependent pressure curve. 6.8.2 Profile generation unit: Peak pressure value from each transfer response, reaching peak pressure. It determines the duration, initial slope, pressure damping time, and total flow rate. 6.8.3 Peak pressure value, the highest pressure measured at the response port during the stimulation cycle. It represents change. 6.8.4 Time to reach peak pressure, the time elapsed from the start of stimulation to the peak pressure value. It represents time. 6.8.5 The initial slope represents the rate of pressure change during the first part of the excitation. 6.8.6 Pressure damping time is the pressure difference across the response port after the stimulation ends. It represents the time it takes for the level to drop to a defined level. 6.8.7 Total flow value is the ratio of measured flow values ​​to time during the measurement step. It represents the total. 6.8.8 All physical response components obtained from different port pairs are included in the document group. It creates a highly variable pneumatic transfer profile. 6.9 Reference pneumatic duct 35 6.9.1 Reference pneumatic duct; duct body, fixed inlet opening, fixed flow path, fixed outlet It includes an opening and a reference pressure sensor. 6.9.2 The geometry of the reference pneumatic channel does not change between measurement cycles. 9 5 6.9.3 Defined pneumatic stimulation to the reference pneumatic channel at each initial measurement cycle is being implemented. 6.9.4 The same pneumatic excitation is applied to the reference pneumatic channel in each return measurement cycle. is being implemented. 6.9.5 The reference pressure sensor depends on the time it takes for the reference pneumatic channel to respond to stimulation. It measures the response. 6.9.6 The control unit measures the pneumatic response components from the document group using the same measurement. It normalizes the response based on the reference channel in the loop. 6.9.7 Normalized response values ​​to initial pneumatic transfer profile and return It is recorded in the pneumatic transfer profile. 6.10 Excitation sequence specific to the measurement cycle 6.10.1 The control unit generates a warning sequence for each document usage cycle. 6.10.2 Stimulation sequence, the order of stimulation ports and stimulation at each measurement step. It defines its parameters. 6.10.3 The generated stimulus sequence is stored in profile memory along with the initial pneumatic transfer profile. They are related. 6.10.4 The same warning recorded in the profile memory during the return verification of the document group. The series is being implemented. 6.10.5 Return pneumatic transfer profile after completion of the stimulation sequence. is being created. 6.11 Generating the return pneumatic transfer profile 6.11.1 After use, the document group is returned to its document holder. 6.11.2 The lid is brought to the closed measuring position. 6.11.3 The excitation sequence for the relevant operating cycle in the control unit profile memory. is calling. 6.11.4 The port selection manifold is executed according to the port order in the registered stimulus sequence. 6.11.5 Pneumatic stimulation unit recording stimulation parameters at the initial measurement It is implementing. 35 6.11.6 Pressure sensing unit and flow sensing unit return measurement responses It records. 6.11.7 The reference pneumatic channel is measured within the same cycle. 5 6.11.8 Return measurement responses normalized relative to reference pneumatic channel response is being done. 6.11.9 Profile generation unit normalized return responses return pneumatic It creates the transfer profile. 6.12 Profile comparison layout 6.12.1 Profile comparison unit, each physical element found in the initial pneumatic transfer profile. the response component of the return pneumatic transfer profile is the corresponding physical response component. It matches with. 6.12.2 Each physical response component has a separate acceptance limit in profile memory. 6.12.3 Profile comparison unit: Each return response component corresponds to the initial response. It identifies the difference between the components. 6.12.4 The determined difference is compared with the relevant acceptance limit. 6.12.5 Profile if all response components are within their own acceptance limits. The verification process is being successfully completed. 6.12.6 Profile if one of the response components is outside its acceptable range The verification process is being rendered unsuccessful. 6.12.7 Profile verification result from the control unit to the actuator unit of the blocking element. is being transferred. 6.13 Blocking element and final closing mechanism 6.13.1 Final closing mechanism; closing bolt, bolt guide channel, final closing mechanism. It includes a counter, a closing handle, and a safety retaining element. 6.13.2 The closing bolt moves along the bolt guide channel with the movement of the closing lever. It is moving towards a closure penalty. 6.13.3 Blocking element; blocking body, sliding track blocking tongue, blocking guide, It includes a release actuator and a return element. 6.13.4 Slide path obstruction, closing slide movement before verification is complete. It is located on the line. 6.13.5 Release actuator when profile verification fails 35 are not operational. 6.13.6 Slide path blocking slider closing slide when profile verification fails It remains in the line of motion. 11 5 6.13.7 When the closing bolt contacts the final closing counterpart of the bolt path obstruction tongue It is not accessible. 6.13.8 Release drive element blocking when profile verification is successful. It moves its body to a free position. 6.13.9 In the free position, the sliding path obstacle tongue closing slide's movement line It is being filmed. 6.13.10 Final closing equivalent in the movement line where the closing bolt is released. It is progressing. 6.13.11 Safety retaining element when the closing bolt reaches its final closing counterpart. It holds the closing slide in its final closing position. 6.13.12 Last shutdown position returned before authorized power-on operation occurs. not accepted. 6.14 Usage cycle 6.14.1 At the start of the document usage cycle, the document group is placed in the document placement tray. It is located. 6.14.2 The lid is closed in the measuring position. 6.14.3 The control unit generates the excitation sequence for the operating cycle. 6.14.4 The reference pneumatic channel is being measured. 6.14.5 The pneumatic ports are stimulated sequentially according to the stimulation sequence. 6.14.6 Time-dependent pressure and flow values ​​at the response ports are recorded. 6.14.7 Measurement responses are normalized relative to the reference pneumatic channel response. 6.14.8 Initial pneumatic transfer profile is being created. 6.14.9 Initial pneumatic transfer profile, acceptance limits and excitation sequence profile memory It is being recorded. 6.14.10 Document group is being removed from the captain's office for use. 6.14.11 After use is complete, return the document group to the document placement tray. is being placed. 6.14.12 The lid is closed in the re-measuring position. 6.14.13 The recorded stimulus sequence is being reapplied. 35 6.14.14 A return pneumatic transfer profile is being created. 6.14.15 Return pneumatic transfer profile with initial pneumatic transfer profile They are being compared. 12 5 6.14.16 Blocking element closing slider when profile verification is successful It is moving out of the way. 6.14.17 Blocking element closing slider when profile validation fails It remains in the path of movement. 6.14.18 When the last released closing mechanism is brought to the last closing position The usage cycle is ending. 6.15 Identifying physical changes in the document group 6.15.1 Removing a leaf from a group of documents minimizes the flow paths between the leaves. It alters the geometry of a section of it. 6.15.2 Adding a different sheet to the document group, transfer between pneumatic ports It changes at least part of its routes. 6.15.3 Changing the order of leaves in a document group, leaf contact areas and intervals It changes the distribution of spaces. 6.15.4 These physical changes affect the time-dependent pressure transfer between ports and It alters the flow characteristics. 6.15.5 The profile comparison unit assesses these changes based on numerous transfer responses. It is determined by evaluating them together. 6.15.6 The verification process is not based on a single total thickness value. 6.15.7 The verification process is not based on a single total weight value. 6.15.8 Verification process for an optical identifier subsequently applied to the document group It does not last. 6.16 System control 6.16.1 The control unit must start the pneumatic excitation unit before the measurement cycle begins. It is monitoring the situation. 6.16.2 Response of the reference pneumatic channel within defined system control limits. They are being compared. 6.16.3 If the reference pneumatic channel response is found outside the system control limits Document profile comparison is not considered a completed verification. 35 6.16.4 The blocking element is not released before the system check is complete. It is not being passed through. 6.16.5 This structure prevents leakage and flow path obstruction occurring in the pneumatic circuit. This allows it to be separated from the verification result. 13 5 7. HOW THE INVENTION IS APPLIED TO INDUSTRY The invention concerns a multi-port pneumatic transfer profile for document integrity verification and security. closure system; in archives, libraries, official document storage units, within institutions in document circulation systems, controlled use of contract files, technical records verification of the integrity of the physical documents during their temporary circulation and at the time of return It is implemented in closed document management systems where required. The cover body and document holder are made of metal, technical plastic, and structural composite. It is manufactured using high-quality materials. Pneumatic ports and manifold channels are precision-designed. They are created in the form of machined channel structures. The pneumatic excitation unit is electrically powered. It consists of working pump and valve components. Pressure sensing unit and flow The sensing unit transmits the measurement signals to the control unit. Profile memory initialization. It stores its profile, acceptance limits, and stimulus sequence. The system involves measuring the document group before use, and initial pneumatic transfer. saving the profile, removing the document group from the captain for use, use subsequent repositioning, creation of the return pneumatic transfer profile, profiles According to the comparison and verification results, the final closing mechanism is physically The release process is ongoing. 14

Claims

1. Return of a group of documents temporarily removed from a container for use. Document with multi-port pneumatic transfer profile for verifying integrity. It is a security system and its feature is; document placement where the document group is placed. a container body containing the bed, spatially separating the group of documents at least one primary pneumatic port establishing flow communication with edge regions, second pneumatic port and third pneumatic port, to the selected stimulation port from the pneumatic ports The pneumatic stimulation unit that applies controlled pneumatic stimulation, the pneumatic the time elapsed on at least one response port different from the stimulation port during stimulation sensing unit that determines the associated physical response, for the purpose of using the document group. before the captain is removed, between different stimulation ports and different response ports A profile that generates an initial pneumatic transfer profile from time-dependent physical responses. the generation unit, profile memory that stores the initial pneumatic transfer profile, documentation the group's documents are placed back on the document placement bed after use then used in creating the initial pneumatic transfer profile Creating a return pneumatic transfer profile by applying a pneumatic stimulation sequence. control unit, return pneumatic transfer profile, initial pneumatic transfer profile The profile comparison unit, which compares the container body in its final closing position, the final closing mechanism and profile comparison unit that provides security If the defined acceptance conditions are not met, the final closing mechanism will be activated. the movement in question will continue if the defined acceptance conditions are met. It includes a physical barrier element that is removed from the path.

2. According to Claim 1, it is a multi-port pneumatic transfer profile document security system. Its feature is that it establishes flow communication with the first edge region of the document group. pneumatic port, second pneumatic port establishing flow communication with the second side edge region, third pneumatic port establishing flow communication with the leading edge region and the rear edge region It includes a fourth pneumatic port that establishes flow communication. 35 3. According to Claim 2, it is a multi-port pneumatic transfer profile document security system. Its features include; first pneumatic port, second pneumatic port, third pneumatic port and The port body, air passage duct, and documentation for each of the fourth pneumatic ports. The port opening that establishes flow communication with the leaf edges of group 5, manifold connection channel. and includes a sensor connection channel.

4. According to Claim 1, it is a multi-port pneumatic transfer profile document security system. Its feature is measuring the flow path between the pneumatic excitation unit and the pneumatic ports. The port selection manifold body, which determines the sequence according to the manifold, is the excitation input. channel, separate port channels connected to pneumatic ports, manifold selection element and It includes a manifold drive unit.

5. According to claim 4, it is a multi-port pneumatic transfer profile document security system. Its feature is that the manifold selection element pneumatically activates the unit at each measurement step. It is designed to connect to a single stimulation port.

6. According to Claim 1, it is a multi-port pneumatic transfer profile document security system. Its features include a pneumatic excitation unit consisting of a pump, excitation chamber, and pressure regulation system. The component includes an excitation valve and a pressure monitoring sensor.

7. According to claim 6, it is a multi-port pneumatic transfer profile document security system. Its features include; the starting pressure, rise time, and stimulation duration of each pneumatic stimulus, and It is generated based on recorded excitation parameters, including the damping time.

8. According to Claim 1, it is a multi-port pneumatic transfer profile document security system. Its feature is that the sensing unit detects time-dependent pressure changes in pneumatic ports. The determining factor is that it contains a pressure sensing unit.

9. According to Claim 1, it is a multi-port pneumatic transfer profile document security system. Features include: sensing unit with pneumatic excitation unit and port selection manifold. flow sensing determines the time-dependent magnitude of pneumatic flow between them It includes the unit. 35 10. According to Claim 1, it is a multi-port pneumatic transfer profile document security system. Its feature is; the initial pneumatic transfer profile from the first excitation port to the second response port. to the port, from the first stimulation port to the third response port, from the second stimulation port 16 5 separate for the first response port and from the second stimulation port to the third response port. It involves time-dependent transfer responses.

11. According to Claim 2, it is a multi-port pneumatic transfer profile document security system. Its feature is that the initial pneumatic transfer profile of each of the four pneumatic ports obtained from the remaining pneumatic ports as a result of being used successively as stimulation ports. in the form of an inter-port transfer matrix containing the received response values is the creation of.

12. According to Claim 1, it is a multi-port pneumatic transfer profile document security system. The feature is that the profile generation unit determines the peak pressure value for each port pair, peak pressure. arrival time, initial pressure change slope, pressure damping time, and total flow. Its value is determined in terms of physical response components.

13. According to Claim 1, it is a multi-port pneumatic transfer profile document security system. The feature is that the control unit sets the sequence of the warning ports for each document usage cycle. and cycle-specific excitation sequence defining pneumatic excitation parameters It is the creation of.

14. According to claim 13, it is a multi-port pneumatic transfer profile document security system. Its feature is the initial pneumatic transfer profile of the cycle-specific excitation sequence. It is stored in the profile memory.

15. According to claim 14, it is a multi-port pneumatic transfer profile document security system. Its feature is the return pneumatic transfer profile after the document group is returned. the same cycle-specific excitation stored in profile memory during its creation It is the implementation of the series. According to Claim 16, it is a multi-port pneumatic transfer profile document security system. Its distinguishing feature is that it incorporates a reference pneumatic channel with constant geometry and flow resistance. 35 17. According to claim 16, it is a multi-port pneumatic transfer profile document security system. Its features include: a reference pneumatic duct body, a fixed inlet opening, and a fixed flow path. It features a fixed outlet opening and includes a reference pressure sensor. 17 5 18. According to claim 16, it is a multi-port pneumatic transfer profile document security system. The characteristic is the physical response of the control unit in the initial pneumatic transfer profile. the values ​​and the physical response values ​​in the return pneumatic transfer profile are the same based on the response value obtained from the reference pneumatic channel in the measurement cycle It is about normalizing it. According to Claim 19, it is a multi-port pneumatic transfer profile document security system. Its feature is that the profile memory contains different profiles found in the initial pneumatic transfer profile. It maintains a separate acceptance limit for each of the physical response components.

20. According to claim 19, it is a multi-port pneumatic transfer profile document security system. Its feature is the physical profile of the profile comparison unit in the return pneumatic transfer profile. when all response components are within the corresponding acceptance limits It means creating a successful verification status.

21. According to claim 19, it is a multi-port pneumatic transfer profile document security system. Its feature is the physical profile of the profile comparison unit in the return pneumatic transfer profile. when at least one of the response components is outside the corresponding acceptance limit This results in a failed validation status.

22. According to Claim 1, it is a multi-port pneumatic transfer profile document security system. Its feature is the blocking element's blocking body, the final closing mechanism. locking bolt movement path obstruction tongue, obstruction guide, The release mechanism includes a drive element and a return element.

23. According to claim 22, it is a multi-port pneumatic transfer profile document security system. Feature: Closing the slide path barrier before profile verification is complete. The bolt must be located on the path of movement where it reaches its final closing counterpart.

24. According to claim 22, it is a multi-port pneumatic transfer profile document security system. 35 features; the profile comparison unit successfully creates a verification status. closing the slide barrier of the release actuator on the bolt path It is the act of pulling the bolt out of its path of movement. 18 5 25. According to Claim 1, it is a multi-port pneumatic transfer profile document security system. Features; closing slide of the final closing mechanism, slide guide channel, final close the locking lever and the locking slide to the final closing position. It includes a holding safety element.

26. According to claim 25, it is a multi-port pneumatic transfer profile document security system. Its feature is; the safety retaining element's closing bolt has a final closing counterpart. After reaching it, keep the closing slider open until the authorized opening operation is complete. It keeps it in the last closed position. According to Claim 1, it is a multi-port pneumatic transfer profile document security system. Feature; base surface of the document placement bed, first side positioning surface, second side positioning surface, front positioning surface and rear It includes a positioning surface.

28. According to claim 27, it is a multi-port pneumatic transfer profile document security system. Its feature is that the positioning surfaces in the document placement tray organize the document group. The edge regions are the same in both initial profile measurement and return profile measurement. It is designed to bring the pneumatic ports to the relevant areas. According to Claim 1, it is a multi-port pneumatic transfer profile document security system. feature; the document group of the initial pneumatic transfer profile is known in advance. It is created without using the number of leaves.

30. According to Claim 1, it is a multi-port pneumatic transfer profile document security system. Its feature is the predefined nominal blade of the initial pneumatic transfer profile. It is created without using thickness.

31. According to Claim 1, it is a multi-port pneumatic transfer profile document security system. Feature; security reference of the total weight of the document group in profile verification. It should not be used as 35.

32. According to claim 16, it is a multi-port pneumatic transfer profile document security system. The characteristic is that the reference pneumatic channel response is outside the defined system control limits. If 19 5 is present, the movement of the final closing mechanism of the blocking element It is about staying on track.