LASER-BASED MEASUREMENT SYSTEM WITH DIGITAL READOUT AND REFLECTIVE SURFACE DETECTION

Abstract

Disclosed is a system comprising a measurement block to receive a digital sensor. A laser emitter intersects with said measurement block to project a beam. A reflective surface is longitudinally aligned with said laser emitter to enable deflection detection. A digital readout is operatively connected to said laser emitter to display measurements associated with said system.

Specification

Description:Field of the Invention


The present disclosure generally relates to measurement systems. Further, the present disclosure particularly relates to a laser-based measurement system with a digital readout and reflective surface detection.
Background
The background description includes information that may be useful in understanding the present invention. It is not an admission that any of the information provided herein is prior art or relevant to the presently claimed invention, or that any publication specifically or implicitly referenced is prior art.
Various systems and techniques exist in the field of measurement and detection, which employ digital sensors and laser technology for precision tasks. The utilization of digital sensors in combination with laser projection devices has gained importance in multiple applications, such as alignment systems, distance measurement, and reflective surface detection. Digital sensors have been used to enhance measurement accuracy by converting physical quantities into digital data. However, systems based on digital sensors often experience issues concerning sensitivity to environmental factors like temperature changes, mechanical vibrations, and variations in ambient light, leading to inaccurate measurements. In such cases, the overall accuracy and reliability of measurements can be significantly compromised.
Moreover, certain known systems make use of laser emitters in conjunction with reflective surfaces to detect and measure distances or deflections. These systems frequently rely on optical alignment between the laser and reflective surface. However, maintaining consistent optical alignment in varying environmental conditions, especially where vibrations are prevalent, can pose challenges. Misalignment between the laser emitter and the reflective surface can result in measurement errors or total failure of the system to record meaningful data. Furthermore, the reflection-based detection method may suffer from inaccuracies due to the poor quality of the reflective surface, the angle of reflection, or interference from external light sources, further degrading the performance of the system.
In addition, existing systems often employ digital readouts to display measurement data gathered by the sensors and other components. While digital readouts offer a convenient method to visualise data, they are often prone to errors when operating in real-world environments with fluctuating electrical signals or data noise. Digital readouts in such systems may lack robustness in terms of signal processing, making it difficult to maintain the accuracy and clarity of displayed information. Furthermore, many of the current systems are not sufficiently integrated with error correction mechanisms, which leads to discrepancies between the measured and displayed data.
Another significant issue encountered in prior systems relates to the difficulty of integrating multiple components in a manner that ensures real-time, accurate measurements. Complex mechanical setups involving lasers, reflective surfaces, and digital sensors often result in cumbersome systems that are difficult to install, calibrate, and maintain. The alignment process, which is a critical aspect of these systems, is highly dependent on manual intervention, leading to inconsistent results and an increased likelihood of human error. Additionally, systems with intricate mechanical configurations may suffer from wear and tear over time, reducing their lifespan and reliability in industrial or field applications.
Furthermore, it is observed that several state-of-the-art systems are designed primarily for controlled environments, limiting their usability in real-world scenarios where conditions such as dust, moisture, and vibrations are present. Such limitations reduce the versatility of the systems, making them impractical for a wide range of applications. Moreover, the robustness of data collection and display in harsh environmental conditions remains a significant challenge, particularly in outdoor and industrial settings where measurement accuracy is critical.
In light of the above discussion, there exists an urgent need for solutions that overcome the problems associated with conventional systems and techniques for measurement and detection that use digital sensors, laser emitters, and reflective surfaces for measurement tasks.
Summary
The following presents a simplified summary of various aspects of this disclosure in order to provide a basic understanding of such aspects. This summary is not an extensive overview of all contemplated aspects, and is intended to neither identify key or critical elements nor delineate the scope of such aspects. Its purpose is to present some concepts of this disclosure in a simplified form as a prelude to the more detailed description that is presented later.
The following paragraphs provide additional support for the claims of the subject application.
An objective of the present disclosure aims to provide a system that enables precise measurement through the integration of laser technology, reflective surfaces, and digital readouts. The system of the present disclosure aims to achieve accurate deflection detection by aligning a laser emitter with a measurement block, reflective surface, and digital readout, thereby optimizing the clarity and reliability of the measurement results.
In an aspect, the present disclosure provides a system comprising a measurement block to receive a digital sensor, a laser emitter intersecting with said measurement block to project a beam, a reflective surface longitudinally aligned with said laser emitter for deflection detection, and a digital readout operatively connected to said laser emitter to display measurements in said system.
Furthermore, said measurement block further comprises a leveling unit integrated on the base, enabling precise adjustment for the proper alignment of said laser emitter. Moreover, said laser emitter intersects with a collimating lens positioned within said measurement block, focusing the laser beam into a narrow path to improve the precision of the deflection detection on said reflective surface. Said reflective surface is longitudinally aligned with an adjustable mount, altering the angle of reflection relative to said laser emitter, enabling measurement of deflection in various orientations. Moreover, said digital readout is directly connected to a data processor situated within said measurement block, processing real-time deflection data from said laser emitter and enhancing readability. Furthermore, said laser emitter comprises a wavelength selector intersecting with an optical filter, enabling adjustment of the laser wavelength to optimize reflection on said reflective surface for varying surface materials. Moreover, said reflective surface comprises a concave mirror intersecting with a central alignment point, enhancing the precision of laser beam deflection capture and providing a more focused feedback signal to said digital readout. Furthermore, said measurement block comprises a vibration isolator at the base, reducing external vibrations that could affect said laser emitter. Moreover, said digital readout is aligned to communicate deflection data to an external device using a wireless transmitter, enabling remote monitoring and data logging for analysis purposes. Furthermore, said laser emitter comprises a beam intensity modulator positioned within said measurement block, providing variable intensity control to adapt to different measurement environments and enhancing the clarity of readings.

Brief Description of the Drawings


The features and advantages of the present disclosure would be more clearly understood from the following description taken in conjunction with the accompanying drawings in which:
FIG. 1 illustrates a system (100), in accordance with the embodiments of the present disclosure.
FIG. 2 illustrates sequential diagram of the system 100, in accordance with the embodiments of the present disclosure.
Detailed Description
In the following detailed description of the invention, reference is made to the accompanying drawings that form a part hereof, and in which is shown, by way of illustration, specific embodiments in which the invention may be practiced. In the drawings, like numerals describe substantially similar components throughout the several views. These embodiments are described in sufficient detail to claim those skilled in the art to practice the invention. Other embodiments may be utilized and structural, logical, and electrical changes may be made without departing from the scope of the present invention. The following detailed description is, therefore, not to be taken in a limiting sense, and the scope of the present invention is defined only by the appended claims and equivalents thereof.
The use of the terms "a" and "an" and "the" and "at least one" and similar referents in the context of describing the invention (especially in the context of the following claims) are to be construed to cover both the singular and the plural, unless otherwise indicated herein or clearly contradicted by context. The use of the term "at least one" followed by a list of one or more items (for example, "at least one of A and B") is to be construed to mean one item selected from the listed items (A or B) or any combination of two or more of the listed items (A and B), unless otherwise indicated herein or clearly contradicted by context. The terms "comprising," "having," "including," and "containing" are to be construed as open-ended terms (i.e., meaning "including, but not limited to,") unless otherwise noted. Recitation of ranges of values herein are merely intended to serve as a shorthand method of referring individually to each separate value falling within the range, unless otherwise indicated herein, and each separate value is incorporated into the specification as if it were individually recited herein. All methods described herein can be performed in any suitable order unless otherwise indicated herein or otherwise clearly contradicted by context. The use of any and all examples, or exemplary language (e.g., "such as") provided herein, is intended merely to better illuminate the invention and does not pose a limitation on the scope of the invention unless otherwise claimed. No language in the specification should be construed as indicating any non-claimed element as essential to the practice of the invention.
Pursuant to the "Detailed Description" section herein, whenever an element is explicitly associated with a specific numeral for the first time, such association shall be deemed consistent and applicable throughout the entirety of the "Detailed Description" section, unless otherwise expressly stated or contradicted by the context.
As used herein, the term "system" is used to refer to a collection of components working together to perform a specific task. Such a system may include various mechanical, electrical, or electronic elements that interact to achieve the desired operational output. In particular, the term "system 100" refers to a setup designed to handle the reception, processing, and display of data collected from measurement and sensor-based sources. The system may include interconnected blocks and elements that work together to facilitate the collection of measurements, project laser beams, and display the results digitally. Said system includes specific components such as a measurement block, a laser emitter, a reflective surface, and a digital readout, which are structurally or operatively connected. The elements interact to process input and display the results for the user. The system may be implemented in various operational environments requiring precise measurement of dimensions or properties, depending on the nature of the collected data and its processing requirements.
As used herein, the term "measurement block" is used to refer to a structural component designed to receive input from an external device such as a sensor. The measurement block 102 collects digital sensor input and serves as an interface where sensor data can be processed. Said measurement block may include input ports or connectors, enabling interaction between the system and the sensor. Additionally, the measurement block may process the received input and enable further interaction with other elements of the system, such as the laser emitter. The measurement block interacts with connected elements within the system to ensure the input data from the sensor is handled appropriately. The sensor's digital input is crucial in triggering subsequent operations in the system. The measurement block, therefore, acts as the initial stage in a chain of operations that lead to data display on the digital readout. The block enables compatibility with various types of sensors and inputs.
As used herein, the term "laser emitter" is used to refer to a device capable of emitting a focused beam of light for measurement or projection purposes. The laser emitter 104 is intersected with the measurement block to project a laser beam, which may be used to detect or measure distances, alignments, or other physical properties. Said laser emitter projects a coherent light beam along a specified path, interacting with other elements of the system such as the reflective surface. The laser beam emitted is utilized within the system to interact with external objects or internal system components. Such an emitter may be capable of precise projection, and its operation is triggered by the data received from the measurement block. The interaction between the laser beam and the reflective surface enables measurements of reflections, refractions, or other changes in the beam path. The emitter operates to project the beam for the purpose of accurate measurement and detection within the system.
As used herein, the term "reflective surface" is used to refer to a surface capable of reflecting light or other electromagnetic waves back toward the source. The reflective surface 106 is longitudinally aligned with the laser emitter to enable detection of the deflected beam. Said reflective surface may be flat, curved, or otherwise shaped to alter the path of the beam upon contact. The surface is positioned in a manner that facilitates interaction with the laser beam, causing reflection or refraction that can be measured by the system. The reflective surface interacts with the laser beam projected by the laser emitter and alters the beam's path based on the surface's physical properties. The interaction between the laser beam and the reflective surface is essential for detecting changes in beam direction, position, or intensity. The surface's alignment with the laser emitter determines the accuracy and effectiveness of the system in measuring or detecting deflections of the projected beam.
As used herein, the term "digital readout" is used to refer to a display component that shows numerical or graphical data processed by the system. The digital readout 108 is operatively connected to the laser emitter and is responsible for displaying the measurements detected or calculated within the system. Said digital readout receives data from the laser emitter or other components and presents it in a human-readable format. The data displayed on the readout may include measurements related to beam deflection, sensor input, or other physical properties detected by the system. The digital readout may be in the form of a numerical display, a graphical interface, or other formats depending on the system's requirements. Such a readout serves as the final output element of the system, where processed data from various system components is aggregated and shown for user interpretation. The digital readout enables clear and accurate display of the measurements.
FIG. 1 illustrates a system (100), in accordance with the embodiments of the present disclosure. In an embodiment, a measurement block 102 is provided to receive a digital sensor for collecting data. The measurement block 102 may include ports or connectors to interface with the digital sensor, allowing input of digital signals into the system 100. The measurement block 102 may incorporate circuits or devices that accept signals from the sensor and process the received data before transmitting it to other components within the system 100. Said measurement block 102 may be structured to work with different types of digital sensors, including but not limited to, temperature sensors, pressure sensors, or displacement sensors. The input received by the measurement block 102 serves as the initial data source for the subsequent operations within the system 100. Additionally, the placement and configuration of the measurement block 102 may enable the secure positioning of the sensor, ensuring accurate data input without interference. The digital sensor input is received and processed at the measurement block 102 to prepare it for further manipulation, such as interaction with the laser emitter 104 or transmission to other system components.
In an embodiment, a laser emitter 104 intersects with the measurement block 102 and projects a focused laser beam for further analysis. The laser emitter 104 is situated at a point where interaction with the data from the measurement block 102 occurs. The laser emitter 104 may generate a coherent light beam along a straight path directed towards other components, such as the reflective surface 106. The intersection with the measurement block 102 enables the laser emitter 104 to initiate the projection of the beam based on the data received from the digital sensor. The laser emitter 104 may consist of a light-emitting source, such as a diode, capable of emitting a beam with a specific wavelength or intensity, depending on the measurement requirements of system 100. Said laser emitter 104 may interact with various system elements, and its alignment and projection path can be adjusted to achieve accurate measurements. The laser beam emitted is integral to detecting or measuring physical properties, as the beam interacts with other system components.
In an embodiment, a reflective surface 106 is provided, aligned longitudinally with the laser emitter 104, to allow detection of the deflected laser beam. The reflective surface 106 is positioned along the projection path of the laser beam, such that when the laser beam reaches the surface, the beam is reflected back towards another component for detection or further processing. The reflective surface 106 may consist of materials such as polished metal, coated glass, or other reflective substrates capable of efficiently reflecting the laser beam. The alignment of said reflective surface 106 with the laser emitter 104 ensures that the beam's interaction with the surface provides meaningful deflection data, which can be utilized by the system 100. The surface may also have an adjustable orientation, allowing fine-tuning of the reflection angle based on the specific requirements of system 100. The reflective surface 106 is responsible for altering the beam's path and enabling the detection of beam deflection or changes in beam direction.
In an embodiment, a digital readout 108 is operatively connected to the laser emitter 104 and is responsible for displaying measurements processed within the system 100. The digital readout 108 may consist of an electronic display, such as an LCD or LED panel, which presents the detected data in a format that is easy to interpret by the user. The digital readout 108 may receive input directly from the laser emitter 104 or from other intermediate components that process the deflected laser beam's data. Said digital readout 108 may display various types of measurements, including deflection angles, distances, or other physical parameters, based on the data processed within the system 100. The digital readout 108 is configured to ensure that the measurements are presented in real-time or near real-time, depending on the system's configuration. The display characteristics, such as resolution, brightness, and numerical or graphical representation, can be adapted to meet specific operational requirements.
In an embodiment, the measurement block 102 further comprises a leveling unit integrated on its base. The leveling unit enables fine adjustments of the measurement block 102 to ensure proper alignment of the laser emitter 104 during operation. The leveling unit may include a set of adjustable screws or mechanical elements that allow for precise control over the tilt and orientation of the measurement block 102. This feature is especially useful in environments where the surface on which the system 100 is placed is uneven, as it compensates for such irregularities. The leveling unit may also incorporate a visual indicator, such as a bubble level, to assist in achieving the desired alignment. Such leveling capabilities improve the system's ability to ensure the laser emitter 104 is oriented correctly relative to the reflective surface 106. By integrating the leveling unit into the measurement block 102, the system maintains a stable and aligned laser beam projection, which is essential for accurate deflection measurements. Said leveling unit is specifically designed to interact with the other components of the system 100 to support alignment without requiring additional external tools.
In an embodiment, the laser emitter 104 intersects with a collimating lens that is positioned within the measurement block 102. The collimating lens functions to focus the laser beam emitted by the laser emitter 104 into a narrow, well-defined path. By focusing the laser beam, the system 100 improves the accuracy of deflection detection when the beam interacts with the reflective surface 106. The collimating lens is precisely aligned within the measurement block 102 to ensure that the laser beam passes through its optical center. This configuration enhances the beam's coherence and minimizes diffraction, which is critical in environments where high measurement accuracy is required. The collimating lens may be composed of optical-grade glass or other materials that are suitable for transmitting and focusing laser light. The focused beam allows for more reliable measurements over longer distances and reduces errors caused by beam divergence. Additionally, the collimating lens can be designed to accommodate laser beams of different wavelengths, making the system adaptable to various operational requirements.
In an embodiment, the reflective surface 106 is mounted on an adjustable mount that allows for altering the angle of reflection relative to the laser emitter 104. The adjustable mount provides the ability to rotate or tilt the reflective surface 106, enabling the system 100 to capture deflection data in various orientations. This adjustability is particularly useful in situations where the target surface or object may not be positioned directly in line with the laser beam. The adjustable mount may include a mechanical pivot or a set of hinges that provide rotational freedom along one or more axes. Fine adjustments can be made manually or through mechanical means to change the reflection angle and adapt to different measurement environments. The reflective surface 106 remains securely attached to the mount, ensuring stable operation even when the angle is changed. This flexibility improves the versatility of the system, allowing measurements to be taken from various angles without requiring repositioning of the entire system.
In an embodiment, the digital readout 108 is directly connected to a data processor located within the measurement block 102. The data processor is responsible for handling the real-time processing of deflection data received from the laser emitter 104. Once the laser beam interacts with the reflective surface 106 and the deflection data is captured, the processor analyzes the data and converts it into a format suitable for display on the digital readout 108. The data processor may employ various mathematical models and algorithms to process the incoming signals from the laser emitter 104, ensuring that the information displayed is accurate and up-to-date. This direct connection between the digital readout 108 and the data processor allows for rapid updates of the displayed measurements, enabling the user to monitor changes in deflection in real-time. Additionally, the data processor may include error-checking mechanisms to filter out noise or interference from external sources, thereby improving the quality of the measurements shown on the digital readout 108.
In an embodiment, the laser emitter 104 comprises a wavelength selector intersecting with an optical filter to adjust the wavelength of the laser beam. The wavelength selector allows the user to select different wavelengths of laser light depending on the properties of the reflective surface 106 or the material being measured. The optical filter is positioned along the beam path to isolate the selected wavelength and block unwanted wavelengths that may cause interference or reduce the accuracy of the measurement. The ability to adjust the laser wavelength is beneficial when measuring reflective surfaces of varying materials, as some materials reflect certain wavelengths more effectively than others. The wavelength selector may consist of a rotating disk with multiple filters, or a tunable optical device, allowing for seamless transition between wavelengths without interrupting the system's operation. The optical filter ensures that the laser beam maintains its purity and coherence as it travels towards the reflective surface 106, optimizing the reflection and deflection detection process.
In an embodiment, the reflective surface 106 is composed of a concave mirror intersecting with a central alignment point that enhances the capture of laser beam deflection. The concave shape of the reflective surface 106 allows the laser beam to converge towards a focal point, providing a more concentrated and precise reflection of the beam back to the system 100. This design improves the system's ability to detect subtle changes in the laser beam's path after it interacts with the target surface. The central alignment point ensures that the laser beam is directed accurately toward the concave mirror, optimizing the interaction between the laser beam and the reflective surface 106. The concave mirror may be constructed from materials such as polished metal or coated glass, which are suitable for reflecting laser light with minimal distortion. By incorporating a concave reflective surface, the system achieves higher sensitivity in detecting beam deflections, making it particularly useful for applications requiring precise measurement of small angular deviations.
In an embodiment, the measurement block 102 further comprises a vibration isolator situated at the base. The vibration isolator serves to minimize external vibrations that may affect the stability and accuracy of the laser emitter 104 during operation. External vibrations, such as those caused by machinery or environmental factors, can cause misalignment or jitter in the laser beam, leading to inaccurate measurements. The vibration isolator is designed to absorb or dampen these vibrations, ensuring that the laser emitter 104 remains stable. Said isolator may consist of rubber mounts, springs, or other shock-absorbing materials that are strategically placed at the base of the measurement block 102. By isolating the measurement block 102 from external vibrations, the system 100 maintains a consistent beam projection, which is critical for obtaining reliable deflection data from the reflective surface 106. The vibration isolator enables the system to operate effectively even in environments where vibrations are present.
In an embodiment, the digital readout 108 is equipped with a wireless transmitter that communicates deflection data to an external device for remote monitoring. The wireless transmitter allows the system 100 to send real-time data to devices such as computers, tablets, or smartphones, facilitating off-site monitoring and data logging. The wireless transmitter may use standard communication protocols such as Bluetooth or Wi-Fi to establish a connection with the external device. This feature is particularly useful for applications where the system 100 is located in a hard-to-reach area or where continuous monitoring is required over a long period. The external device can display the transmitted data in a user-friendly format, enabling detailed analysis and record-keeping. The wireless communication capability also allows for integration with larger data management systems, where the collected data can be stored and analyzed for trends or patterns. The wireless transmitter enhances the flexibility of the system by allowing the user to monitor data without being physically present at the location of the system.
In an embodiment, the laser emitter 104 comprises a beam intensity modulator positioned within the measurement block 102. The beam intensity modulator provides control over the power output of the laser emitter 104, allowing the system 100 to adapt to different measurement environments. In low-light or highly reflective environments, the intensity of the laser beam can be reduced to prevent oversaturation of the reflective surface 106. Conversely, in environments with high ambient light or low reflectivity, the beam intensity can be increased to ensure accurate detection of the deflected beam. The beam intensity modulator may be controlled manually by the user or automatically adjusted based on feedback from the system's sensors. The intensity modulator works in conjunction with other components, such as the collimating lens, to maintain a focused and coherent beam. By adjusting the beam intensity, the system 100 is able to provide clear and accurate measurements under varying conditions, improving the overall performance of the system.
FIG. 2 illustrates sequential diagram of the system 100, in accordance with the embodiments of the present disclosure. The system 100 comprises a digital sensor interfacing with the measurement block 102 to send digital data for processing. The measurement block 102 transfers this data to the laser emitter 104, triggering the projection of a laser beam. The projected laser beam travels toward the reflective surface 106, which is longitudinally aligned with the laser emitter 104. The reflective surface 106 detects the deflected beam and reflects it back toward the laser emitter 104. The deflection data is then transmitted from the laser emitter 104 back to the measurement block 102. Finally, the measurement block 102 transfers the deflection data to the digital readout 108, which displays the measurements, providing a clear output of the deflection values. Each component works in sequence, ensuring accurate deflection detection and real-time data presentation on the digital readout 108 for user interpretation.
In an embodiment, the system 100 comprises a measurement block 102 configured to receive a digital sensor, a laser emitter 104 intersecting with said measurement block 102 to project a beam, a reflective surface 106 longitudinally aligned with the laser emitter 104 for deflection detection, and a digital readout 108 operatively connected to the laser emitter 104 to display measurements. The measurement block 102 receives the input from the digital sensor, converting it into usable data that initiates the operation of the laser emitter 104. The laser emitter 104 projects a beam along a specific path toward the reflective surface 106, which is aligned longitudinally to ensure proper deflection detection. The interaction between the laser beam and the reflective surface 106 generates deflection data, which is processed and displayed by the digital readout 108. The alignment and interaction of these components improve the system's ability to measure deflections accurately, while the digital readout 108 facilitates easy interpretation of the detected measurements.
In an embodiment, the measurement block 102 further comprises a leveling unit integrated on the base. Said leveling unit allows precise adjustment of the measurement block 102 to ensure proper alignment of the laser emitter 104. Misalignment in the laser emitter 104 can lead to inaccurate deflection detection; therefore, the leveling unit enables fine adjustments to correct the tilt or orientation of the measurement block 102. Such a feature is particularly useful in environments where the surface on which the system 100 is placed may not be perfectly level. The leveling unit may include mechanical adjustment features like screws or a bubble level, providing a reliable means of correcting any tilt or misalignment. As a result, the leveling unit ensures that the laser beam is projected correctly toward the reflective surface 106, improving the system's overall measurement accuracy.
In an embodiment, the laser emitter 104 intersects with a collimating lens positioned within the measurement block 102. The collimating lens focuses the laser beam into a narrow, coherent path, which improves the precision of the deflection detection when the beam interacts with the reflective surface 106. By narrowing the beam, the collimating lens reduces the divergence of the laser, ensuring that the beam remains tightly focused over a longer distance. This focused beam interacts more effectively with the reflective surface 106, enhancing the system's ability to detect even small changes in deflection. The collimating lens can be made from optical materials such as high-quality glass or plastic, depending on the requirements of the measurement environment. The placement of the collimating lens within the measurement block 102 is optimized to ensure that the beam remains tightly focused as it travels toward the reflective surface 106.
In an embodiment, the reflective surface 106 is longitudinally aligned with an adjustable mount, allowing for alterations to the angle of reflection relative to the laser emitter 104. The adjustable mount provides rotational freedom along one or more axes, enabling the user to change the orientation of the reflective surface 106 as needed. This adjustability is particularly important when the system 100 is used in environments where the object or surface being measured may not be in a direct line with the laser emitter 104. By adjusting the angle of reflection, the system 100 can accommodate various measurement orientations, improving its versatility. The adjustable mount may consist of mechanical pivots or hinges that allow for precise control over the reflection angle, ensuring that the laser beam remains focused and detectable after interacting with the reflective surface 106.
In an embodiment, the digital readout 108 is directly connected to a data processor situated within the measurement block 102. Said data processor handles the real-time processing of deflection data received from the laser emitter 104. Once the laser beam is deflected by the reflective surface 106, the data processor converts the deflection information into readable measurements that are immediately displayed on the digital readout 108. The real-time connection between the digital readout 108 and the data processor ensures that any changes in deflection are quickly reflected on the display. This feature enhances the system's ability to monitor dynamic changes in the measured object or surface. The data processor may employ various computational models to filter noise and enhance the readability of the data, ensuring that the displayed measurements are accurate and easy to interpret.
In an embodiment, the laser emitter 104 comprises a wavelength selector that intersects with an optical filter, allowing adjustment of the laser beam's wavelength. The wavelength selector enables the system 100 to adapt to different surface materials by optimizing the laser beam's reflection on the reflective surface 106. Certain surface materials may reflect specific wavelengths of light more effectively than others. The wavelength selector allows the user to choose an appropriate wavelength that maximizes the reflection and minimizes interference from the material being measured. The optical filter isolates the selected wavelength, ensuring that the laser beam maintains its purity as it travels toward the reflective surface 106. By adjusting the laser wavelength, the system 100 is able to adapt to varying surface materials, improving the accuracy and reliability of deflection detection.
In an embodiment, the reflective surface 106 comprises a concave mirror intersecting with a central alignment point. The concave shape of the reflective surface 106 enhances the system's ability to capture the deflected laser beam more precisely. The curvature of the mirror allows the laser beam to converge toward a focal point, concentrating the reflection and providing a more focused signal to the digital readout 108. This increased precision is particularly useful in applications requiring detailed measurements of small angular deviations. The central alignment point ensures that the laser beam is directed accurately toward the concave mirror, optimizing the system's ability to detect subtle changes in the beam's path after interacting with the reflective surface 106. The concave mirror may be constructed from polished metal or coated glass, providing a high-quality reflective surface for accurate deflection detection.
In an embodiment, the measurement block 102 further comprises a vibration isolator situated at the base. The vibration isolator reduces the impact of external vibrations that could interfere with the laser emitter 104 during operation. External vibrations, such as those caused by nearby machinery or environmental factors, can cause slight movements in the laser emitter 104, leading to inaccurate deflection measurements. The vibration isolator absorbs or dampens these vibrations, ensuring that the laser beam remains stable and properly aligned with the reflective surface 106. The isolator may consist of shock-absorbing materials like rubber or springs, which effectively minimize external disturbances. By isolating the measurement block 102 from external vibrations, the system 100 can maintain consistent laser beam projection, improving the reliability and accuracy of the deflection data captured by the system.
In an embodiment, the digital readout 108 is equipped with a wireless transmitter that communicates deflection data to an external device for remote monitoring. The wireless transmitter allows the system 100 to send real-time measurement data to devices such as computers, tablets, or smartphones, facilitating remote access to the deflection data. This feature is particularly useful in scenarios where the system 100 is located in a difficult-to-access area, or when continuous monitoring of the measurement data is required. The wireless transmitter may use communication protocols such as Wi-Fi or Bluetooth to establish a connection with external devices. The remote monitoring capability also allows for real-time data logging and analysis, enabling users to track measurement trends and perform detailed analyses without needing to be physically present at the system's location.
In an embodiment, the laser emitter 104 comprises a beam intensity modulator positioned within the measurement block 102. The beam intensity modulator allows for variable control over the power output of the laser emitter 104, enabling the system 100 to adapt to different measurement environments. In scenarios where the reflective surface 106 is highly reflective or in low-light environments, the intensity of the laser beam can be adjusted to prevent oversaturation or scattering of the beam. Conversely, in environments with high ambient light or low reflectivity, the beam intensity can be increased to ensure that the reflected laser beam remains detectable by the system 100. The beam intensity modulator provides flexibility in adapting the laser beam to various conditions, ensuring that the system can capture accurate and clear deflection data regardless of the surrounding e












I/We Claims


A system (100) comprising:
a measurement block (102) configured to receive a digital sensor;
a laser emitter (104) intersecting with said measurement block (102) to project a beam;
a reflective surface (106) longitudinally aligned with said laser emitter (104) for deflection detection; and
a digital readout (108) operatively connected to said laser emitter (104) to display measurements in said system (100).
The system (100) of claim 1, wherein said measurement block (102) further comprises a leveling unit integrated on the base, allowing precise adjustment for proper alignment of said laser emitter (104).
The system (100) of claim 1, wherein said laser emitter (104) is intersecting with a collimating lens positioned within said measurement block (102), focusing the laser beam into a narrow path to improve the precision of the deflection detection on said reflective surface (106).
The system (100) of claim 1, wherein said reflective surface (106) is longitudinally aligned with an adjustable mount configured to alter the angle of reflection relative to said laser emitter (104), facilitating measurement of deflection in various orientations.
The system (100) of claim 1, wherein said digital readout (108) is directly connected to a data processor situated within said measurement block (102), processing real-time deflection data received from said laser emitter (104) and enhancing the readability of the measurements.
The system (100) of claim 1, wherein said laser emitter (104) comprises a wavelength selector intersecting with an optical filter, allowing adjustment of the laser wavelength to optimize reflection on said reflective surface (106) for varying surface materials.
The system (100) of claim 1, wherein said reflective surface (106) comprises a concave mirror intersecting with a central alignment point, enhancing the precision of laser beam deflection capture and providing a more focused feedback signal to said digital readout (108).
The system (100) of claim 1, wherein said measurement block (102) further comprises a vibration isolator situated at the base, reducing external vibrations that could affect said laser emitter (104).
The system (100) of claim 1, wherein said digital readout (108) is equipped with a wireless transmitter aligned to communicate deflection data to an external device, facilitating remote monitoring and data logging for analysis purposes.
The system (100) of claim 1, wherein said laser emitter (104) comprises a beam intensity modulator positioned within said measurement block (102), providing variable intensity control to adapt to different measurement environments and enhancing the clarity of readings.




Disclosed is a system comprising a measurement block to receive a digital sensor. A laser emitter intersects with said measurement block to project a beam. A reflective surface is longitudinally aligned with said laser emitter to enable deflection detection. A digital readout is operatively connected to said laser emitter to display measurements associated with said system.

, Claims:I/We Claims


A system (100) comprising:
a measurement block (102) configured to receive a digital sensor;
a laser emitter (104) intersecting with said measurement block (102) to project a beam;
a reflective surface (106) longitudinally aligned with said laser emitter (104) for deflection detection; and
a digital readout (108) operatively connected to said laser emitter (104) to display measurements in said system (100).
The system (100) of claim 1, wherein said measurement block (102) further comprises a leveling unit integrated on the base, allowing precise adjustment for proper alignment of said laser emitter (104).
The system (100) of claim 1, wherein said laser emitter (104) is intersecting with a collimating lens positioned within said measurement block (102), focusing the laser beam into a narrow path to improve the precision of the deflection detection on said reflective surface (106).
The system (100) of claim 1, wherein said reflective surface (106) is longitudinally aligned with an adjustable mount configured to alter the angle of reflection relative to said laser emitter (104), facilitating measurement of deflection in various orientations.
The system (100) of claim 1, wherein said digital readout (108) is directly connected to a data processor situated within said measurement block (102), processing real-time deflection data received from said laser emitter (104) and enhancing the readability of the measurements.
The system (100) of claim 1, wherein said laser emitter (104) comprises a wavelength selector intersecting with an optical filter, allowing adjustment of the laser wavelength to optimize reflection on said reflective surface (106) for varying surface materials.
The system (100) of claim 1, wherein said reflective surface (106) comprises a concave mirror intersecting with a central alignment point, enhancing the precision of laser beam deflection capture and providing a more focused feedback signal to said digital readout (108).
The system (100) of claim 1, wherein said measurement block (102) further comprises a vibration isolator situated at the base, reducing external vibrations that could affect said laser emitter (104).
The system (100) of claim 1, wherein said digital readout (108) is equipped with a wireless transmitter aligned to communicate deflection data to an external device, facilitating remote monitoring and data logging for analysis purposes.
The system (100) of claim 1, wherein said laser emitter (104) comprises a beam intensity modulator positioned within said measurement block (102), providing variable intensity control to adapt to different measurement environments and enhancing the clarity of readings.

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