Description:FIELD OF THE INVENTION

[0001] The present invention relates to a skin ailment detection and treatment system that is capable of assessing skin conditions, providing personalized recommendations, and guiding users in managing various skin-related issues efficiently and interactively.

BACKGROUND OF THE INVENTION

[0002] The human skin serves as the body’s first line of defense, reflecting overall health and responding visibly to internal and external influences. Changes in texture, color, or appearance indicate underlying conditions that require timely attention and appropriate care. Early recognition and proper management of the concerns are essential to prevent complications and promote long-term well-being. In real-life settings such as clinics, dermatology centers, pharmacies, and even home care environments, accurate evaluation and suitable therapeutic measures support faster recovery, improve confidence, and enhance overall quality of life for individuals across all age groups.

[0003] In many healthcare settings, identification of dermatological conditions relies primarily on visual inspection and practitioner experience. Diagnosis depends on subjective assessment, patient descriptions, and limited manual examination. The approach sometimes leads to variability in interpretation and delayed recognition of subtle abnormalities. Access to specialized expertise remains restricted in remote areas, creating gaps in timely care. Additionally, follow-up evaluation frequently requires repeated visits, increasing time and cost burdens. As a result, early-stage conditions progress unnoticed, treatment adjustments become less precise, and overall management efficiency remains constrained.

[0004] WO2018146688A1 discloses a computerized system and method for skin lesion diagnosis. The user enters one or more images of the lesion and answers an online questionnaire. Using image analysis techniques, information from the questionnaire, information from the user profile and optionally additional external information, the system makes a diagnosis of the lesion.

[0005] WO2004095372A1 discloses a method according to the present invention provides generally to collect digital images of the body surface of the tested subject after having divided the latter into one or more areas exactly located by means of spatial coordinates in a system of coordinated axes fixed with respect to predetermined unchanged reference points of the subject, the images being stored in a suitable data base to be then compared automatically with corresponding images collected at distance of time, thus producing a signal of any variation in the number and/or the morphology/colour of the lesions.

[0006] Conventionally, many systems disclosed in the prior art provide a means for identifying and managing dermatological conditions that relies primarily on visual evaluation and basic examination practices. However, these existing systems limit diagnostic accuracy and early recognition of subtle changes. Moreover, consistent monitoring remains minimal, making timely intervention and comprehensive condition management challenging and time-consuming.

[0007] In order to overcome the aforementioned drawbacks, there exists a need in the art to develop a system that requires to be capable of precisely analyzing skin conditions, generating individualized guidance, and supporting users in addressing various dermatological concerns efficiently. Additionally, the developed system also needs to enhance accessibility, encourage timely care, improve treatment effectiveness, and promote sustained skin health in both clinical and home environments.

OBJECTS OF THE INVENTION

[0008] The principal object of the present invention is to overcome the disadvantages of the prior art.

[0009] An object of the present invention is to develop a system that enables automated detection of various skin ailments in a user in a convenient and user-friendly manner.

[0010] Another object of the present invention is to develop a system that provides personalized treatment recommendations and guidance for effective skin care management.

[0011] Yet, another object of the present invention is to develop a system that assists users in monitoring, managing, and improving skin health while offering interactive support and reliable diagnostic insights.

[0012] The foregoing and other objects, features, and advantages of the present invention will become readily apparent upon further review of the following detailed description of the preferred embodiment as illustrated in the accompanying drawings.

SUMMARY OF THE INVENTION

[0013] The present invention relates to a skin ailment detection and treatment system that is capable of assessing a user’s skin condition, providing personalized diagnostic insights, recommending appropriate treatments, and guiding users, thereby offering an automated, interactive, and user-friendly solution for skin care management.

[0014] According to an aspect of the present invention, a skin ailment detection and treatment system, comprising a housing having a touch-enabled display unit on the housing to enable tactile and visual interaction, a user registration arrangement with the housing to capture biometric data of the user to create a personalised profile, a camera, and a fingerprint sensor with the registration arrangement to capture facial and fingerprint data of the user, a platform from a bottom edge of the user to enable user to stand on, an extendable plate at front portion of the housing for placement of a body part of the user for scanning, a scanning arrangement with the housing to scan the body part of the user, the scanning arrangement comprising at least one scanner with the housing for scanning the body part of the user on the plate, a hyperspectral imaging sensor with the scanning arrangement to capture detailed spectral data of the skin to identify abnormal tissue and discoloration, and a multispectral camera with the scanning arrangement to capture images across multiple wavelengths to detect variations in skin pigmentation, and texture.

[0015] According to another aspect of the present invention, the system further comprises a display unit with a questionnaire module to display medically relevant questions to the user and receive responses from the user, a document scanning means in housing to scan medical documents of the user to extract relevant information, an analysis module with a processing unit to receive the data from the scanning arrangement, the questionnaire module and the document scanning means to determine skin ailments including acne vulgaris, fungal infection, eczema, psoriasis, impetigo, cellulitis, warts and skin cancer, an intervention module with the housing trained over one or more medical modalities, receiving the detected ailment from the analysis module, to output specific treatments for the specific ailments along with directions for the specific treatments, a carousel with the housing by means of an extendable link, containing a plurality of chambers stored with treatment material, and a nozzle with each of the chambers for dispensing the material as per user input and the output of the intervention module.

[0016] While the invention has been described and shown with particular reference to the preferred embodiment, it will be apparent that variations might be possible that would fall within the scope of the present invention.

BRIEF DESCRIPTION OF THE DRAWINGS

[0017] These and other features, aspects, and advantages of the present invention will become better understood with regard to the following description, appended claims, and accompanying drawings where:
Figure 1 illustrates an isometric view of a skin ailment detection and treatment system.

DETAILED DESCRIPTION OF THE INVENTION

[0018] The following description includes the preferred best mode of one embodiment of the present invention. It will be clear from this description of the invention that the invention is not limited to these illustrated embodiments but that the invention also includes a variety of modifications and embodiments thereto. Therefore, the present description should be seen as illustrative and not limiting. While the invention is susceptible to various modifications and alternative constructions, it should be understood, that there is no intention to limit the invention to the specific form disclosed, but, on the contrary, the invention is to cover all modifications, alternative constructions, and equivalents falling within the spirit and scope of the invention as defined in the claims.

[0019] In any embodiment described herein, the open-ended terms "comprising," "comprises,” and the like (which are synonymous with "including," "having” and "characterized by") may be replaced by the respective partially closed phrases "consisting essentially of," consists essentially of," and the like or the respective closed phrases "consisting of," "consists of, the like.

[0020] As used herein, the singular forms “a,” “an,” and “the” designate both the singular and the plural, unless expressly stated to designate the singular only.

[0021] The present invention relates to a skin ailment detection and treatment system that is capable of facilitating automated assessment of skin conditions of a user, enabling interactive user engagement, generating personalised diagnostic outcomes, and providing corresponding treatment recommendations and assistance, thereby offering a solution for preliminary identification, guidance, and management of various skin-related ailments in a user-friendly manner.

[0022] Referring to Figure 1, an isometric view of a skin ailment detection and treatment system is illustrated, comprising a housing 101, a touch-enabled display unit 102 mounted on the housing 101, a camera 103 installed on the housing 101, a fingerprint sensor 104 provided on the housing 101, a platform 105 extending from a bottom edge of the housing 101, an extendable plate 106 attached at front portion of the housing 101, a multispectral camera 107 mounted on the housing 101, an imaging unit 108 installed on the housing 101, a document scanning means 109 provided in the housing 101, a printing unit 110 installed with the housing 101, a speaker 111 provided on the housing 101 and a plurality of chambers 112 having a nozzle 113 attached with the housing 101 by means of an extendable link 114.

[0023] The system disclosed herein comprises a housing 101 which is configured as a robust, ergonomically designed enclosure providing structural support and stability to the system. In an embodiment of the present invention, the housing 101 is formed from durable, lightweight materials such as but not limited to metal alloys, reinforced polymers, or composite materials, and is designed with a smooth, hygienic exterior surface, ensuring ease of maintenance, portability, and suitability for repeated public or clinical use.

[0024] A touch-enabled display unit 102 mounted on the housing 101 enabling tactile and visual interaction. When activated by a processing unit associated with the system, the touch-enabled display unit 102 initializes its control circuitry to render graphical content generated by the system. Touch inputs are detected through a layered sensing surface that converts physical contact into electrical signals. These signals are interpreted by the processing unit, which maps the input coordinates to corresponding interface actions. The processing unit continuously synchronizes visual output and touch feedback, enabling real-time interaction, secure navigation, and responsive user input throughout system operation.

[0025] A user registration arrangement is provided with the housing 101 for capturing biometric data of the user to create a personalised profile. The user registration arrangement comprises an AI (artificial intelligence) camera 103, and a fingerprint sensor 104 capture facial and fingerprint data of the user.

[0026] The AI camera 103 operates by capturing image data through an optical lens assembly and converting it into digital signals using an image sensor. The processing unit preprocesses the image data by performing noise reduction, normalization, and feature extraction. Embedded AI (Artificial Intelligence) protocols executed by the processing unit analyze facial features, patterns, or motion cues to enable identity verification, monitoring, or guidance functions. The processed output is then forwarded to relevant modules for decision-making or user interaction.

[0027] The fingerprint sensor 104 functions by detecting unique ridge and valley patterns of the user’s finger placed on its sensing surface. Upon activation, the sensor 104 converts physical variations into electrical signals. The processing unit digitizes and processes these signals to generate a fingerprint template, which is compared against stored reference data. Authentication results generated by the processing unit are used to confirm user identity and enable access to personalized system functions.

[0028] A platform 105 extending from a bottom edge of the user to enable user to stand on. The platform 105 is configured as a stable, load-bearing structure designed to support the user during system operation. The platform 105 is ergonomically shaped to ensure balanced posture and safe usage. The platform 105 provides a defined positioning reference, enabling consistent interaction with the system while accommodating users of varying physical dimensions and maintaining operational stability.

[0029] An extendable plate 106 is attached at a front portion of the housing 101 for placement of a body part of the user for scanning. The plate 106 is provided with cascading arrangement for extension of the plate 106. The cascading arrangement comprises multiple interlinked plate segments configured to slide relative to one another in a controlled manner. Upon receiving an extension command from the processing unit, an actuating means sequentially advances the segments to increase the effective surface length. The processing unit monitors extension limits and alignment to ensure smooth deployment and retraction. The cascading arrangement allows adaptive positioning of the plate 106 to accommodate different body parts while maintaining structural rigidity and precision.

[0030] A plurality of proximity sensors and touch sensors is installed on the plate 106 to detect appropriate placement of body part of the user on the plate 106 for initiating scanning. The proximity sensors operate by emitting electromagnetic or optical signals and detecting reflected signals from nearby objects. When the body part enters the sensing range, signal variations are detected and converted into electrical data. The processing unit continuously evaluates this data to determine distance and positioning accuracy.

[0031] The touch sensors function by detecting changes in electrical parameters, such as capacitance or resistance, when physical contact is applied. These changes are converted into electrical signals and transmitted to the processing unit. The processing unit filters noise, validates intentional contact, and interprets the input as a control or confirmation signal. This enables precise user interaction, activation of scanning sequences, and confirmation of correct contact during system use.

[0032] A scanning arrangement is installed with the housing 101 to scan the body part of the user. The scanning arrangement comprising at least one scanner mounted slidably with the housing 101 for scanning the body part of the user placed on the plate 106. The scanning arrangement comprises a hyperspectral imaging sensor capturing detailed spectral data of the skin to identify abnormal tissue and discoloration.

[0033] The hyperspectral imaging sensor captures reflected light across a wide range of contiguous wavelengths from the scanned skin surface. Each pixel contains detailed spectral information corresponding to tissue composition. The processing unit processes this high-dimensional data by separating spectral signatures and identifying abnormal variations. This enables detection of subtle biochemical and structural differences in skin tissue, supporting accurate classification of underlying skin conditions.

[0034] A multispectral camera 107 is installed on the housing 101 to capture images across multiple wavelengths to detect variations in skin pigmentation, and texture. The multispectral camera 107 captures images across discrete wavelength bands using optical filters and an image sensor. The captured data is transmitted to the processing unit, which aligns and compares spectral channels to identify variations in pigmentation, texture, and vascular patterns. The processing unit integrates this data with other inputs to enhance contrast and improve recognition of visible and sub-visible skin anomalies during diagnostic evaluation.

[0035] The scanning arrangement further include an infrared (IR) sensor detecting variations in skin temperature and blood flow, indicative of inflammation or infection. The IR sensor detects thermal radiation emitted from the skin surface and converts it into electrical signals proportional to temperature variations. The processing unit interprets these signals to generate thermal profiles of the scanned area. Differences in temperature distribution are analyzed by the processing unit to identify signs of inflammation, infection, or abnormal blood flow, contributing to comprehensive skin condition assessment.

[0036] Further, an imaging unit 108 is installed on the housing 101 for capturing high-resolution images for visual analysis of skin conditions such as rashes, lesions, or wounds. The imaging unit 108 captures high-resolution visual data using an optical assembly and image sensor. The processing unit controls exposure, focus, and image capture timing to ensure clarity and consistency. Captured images are processed for enhancement, segmentation, and feature extraction. The resulting visual data supports surface-level analysis of lesions, rashes, or wounds and is integrated with other diagnostic inputs for accurate evaluation.

[0037] A plurality of dermatological sensor embedded in the platform 105 scanning the feet of the user. The dermatological sensor detects physiological parameters of the skin such as moisture levels, electrical impedance, or surface characteristics. Upon contact, the sensor generates electrical signals representing these parameters. The processing unit processes and normalizes the data to establish baseline and comparative values. This information assists in assessing skin health, detecting abnormalities, and supporting condition-specific analysis when combined with other sensing data.

[0038] A sensing means is installed in the scanning arrangement to capture surface and subsurface skin characteristics for analysing pigmentation, texture, and underlying abnormalities during skin assessment. The sensing means comprises a near infrared (NIR) sensor and a colour sensor. The NIR sensor emits near infrared light onto the skin and detects reflected wavelengths penetrating beneath the surface. The reflected signals are converted into electrical data and analyzed by the processing unit. By evaluating absorption and reflection patterns, the processing unit derives information related to tissue composition, hydration, and subsurface irregularities, enhancing the system’s ability to detect conditions not visible to the naked eye.

[0039] The colour sensor measures reflected visible light across red, green, and blue channels from the skin surface. The processing unit processes these signals to generate accurate colour profiles and detect deviations from normal pigmentation. By comparing measured values with reference datasets, the processing unit identifies discoloration, redness, or uneven tone, supporting visual assessment and condition differentiation.

[0040] A questionnaire module is associated with the system for displaying medically relevant questions to the user via the display unit 102 and receiving responses from the user. The questionnaire module operates under the control of the processing unit to present medically relevant questions to the user through an interactive interface. User responses are captured as structured data and validated by the processing unit for completeness and consistency. The processed responses are correlated with scanned data to refine diagnostic accuracy and personalize outcome generation, enabling informed decision-making.

[0041] A document scanning means 109 is provided in housing 101 to scan medical documents of the user to extract relevant information. The document scanning means 109 comprises an optical sensor capturing images of the document and an OCR (optical character recognition) module extracting information from the images. The optical sensor captures reflected light from a physical document placed within its field of view and converts it into digital image data. The processing unit controls illumination, resolution, and capture timing to ensure readability. The acquired image data is pre-processed by the processing unit through alignment, contrast enhancement, and noise reduction before being forwarded for text extraction.

[0042] The OCR module receives pre-processed document images from the processing unit and performs character segmentation and pattern recognition. The processing unit executes recognition protocols to convert visual text into machine-readable data. Extracted information is structured, validated, and stored for further analysis. This enables automated integration of medical records into the system workflow without manual data entry.

[0043] An analysis module configured with the processing unit, receiving the data from the scanning arrangement, the questionnaire module and the document scanning means 109 to determine skin ailments including acne vulgaris, fungal infection, eczema, psoriasis, impetigo, cellulitis, warts and skin cancer. The analysis module includes an AI-equipped skin disease diagnosis module to analyse images of skin lesions.

[0044] The AI-equipped skin disease diagnosis module operates by receiving processed image data of skin lesions from the imaging pipeline under the control of the processing unit. The processing unit executes trained AI models to perform feature extraction, pattern recognition, and classification of lesion characteristics such as shape, color variation, texture, and boundary irregularities. The AI model compares extracted features with learned reference datasets to determine probable skin conditions. The processing unit then generates diagnostic outputs with confidence metrics for further analysis and decision support.

[0045] An intervention module trained over one or more medical modalities, receiving the detected ailment from the analysis module, to output specific treatments for the specific ailments along with directions for the specific treatments. The intervention module includes an Ayurveda treatment module that combines traditional Ayurvedic knowledge with advanced AI protocols to provide personalized remedies customised to the individual's skin condition.

[0046] The Ayurveda treatment module operates under the control of the processing unit by receiving the diagnosed skin condition and user-specific profile data from the analysis module. The processing unit executes AI-based inference models trained on curated Ayurvedic knowledge, formulation guidelines, and treatment protocols to map the identified condition to suitable remedies. Personalization parameters are applied by the processing unit based on individual characteristics and response patterns. The module then generates customized Ayurvedic treatment recommendations, dosage guidance, and usage instructions for user presentation.

[0047] An output module displaying the outputs of the intervention module and the suggestion module via the display unit 102. The output module operates under instructions from the processing unit to receive processed diagnostic results, treatment recommendations, and guidance data. The processing unit formats the data into user-readable content and controls sequencing, prioritization, and timing of outputs. The output module ensures synchronization between visual and audio feedback, manages confirmation prompts, and updates output states dynamically based on user interaction or system status, enabling clear and structured communication of results.

[0048] A printing unit 110 is installed with the housing 101 to print the output of the output module. The printing unit 110 functions by receiving formatted print commands from the processing unit. Upon activation, the processing unit controls data buffering, print resolution, and page layout. Image and text data are converted into printable patterns and transferred to the print mechanism for physical reproduction. The processing unit monitors print completion, error states, and material usage, ensuring accurate and reliable generation of hard-copy outputs such as reports or instructions.

[0049] A guidance arrangement comprising an imaging means installed with the housing 101 for detecting incorrect application of the treatment material by the user to generate guiding instructions from the display unit 102. The imaging means operates by capturing real-time visual data through an optical capture means. The processing unit controls image acquisition parameters including timing, focus, and exposure. Captured frames are digitized and processed for enhancement, motion detection, or alignment. The processed visual data is analyzed by the processing unit to support monitoring, guidance, or verification tasks and is dynamically updated during system operation.

[0050] A speaker 111 is provided on the housing 101 for delivering audible instructions, alerts, and guidance to assist the user during interaction, diagnosis, and treatment-related operations of the system. The speaker 111 operates by converting digital audio signals generated by the processing unit into audible sound. The processing unit processes audio instructions, alerts, or guidance prompts, converts them into analog waveforms, and regulates volume and timing. These signals drive the speaker 111 diaphragm to produce clear audio output. The processing unit synchronizes audio delivery with visual outputs to provide coordinated and effective user guidance.

[0051] A suggestion module receiving location of the user from a GPS (global positioning system) unit to suggest medical practitioners located in vicinity of the user. The suggestion module functions by receiving diagnostic outcomes and user location data under control of the processing unit. The processing unit executes decision logic to correlate the user’s condition with relevant healthcare services. Location parameters are analyzed to identify suitable medical practitioners or facilities within a defined vicinity. The processing unit ranks and filters suggestions based on proximity, relevance, and availability before generating structured recommendations for user presentation.

[0052] The GPS unit operates by receiving satellite signals and generating raw positioning data. The processing unit decodes timing and positional information to compute the user’s geographical coordinates. Signal accuracy is assessed and refined using error-correction techniques executed by the processing unit. The resulting location data is continuously updated and supplied to location-based modules, enabling contextual recommendations and navigation-related functionalities.

[0053] A carousel is attached with the housing 101 by means of an extendable link 114, containing a plurality of chambers 112 stored with treatment material. The extendable link 114 operated by a pneumatic unit and regulated by the processing unit. Upon receiving a command, the processing unit controls pneumatic valves to direct pressurized fluid into the actuator, causing linear extension or retraction. Sensor feedback is monitored by the processing unit to regulate movement speed, position, and end limits. This ensures smooth, controlled deployment of the chambers 112 with operational safety and precision.

[0054] The chambers 112 are configured as enclosed compartments designed to store treatment materials in a protected and hygienic manner. Each chamber 112 maintains separation of contents to prevent contamination and ensure material integrity. The chambers 112 are arranged to allow selective access and controlled dispensing as required during system operation.

[0055] A nozzle 113 provided with each of the chambers 112 for dispensing the material as per user input and the output of the intervention module. The nozzle 113 functions by receiving dispensing commands from the processing unit to regulate controlled release of treatment material from the associated chamber 112. The processing unit actuates flow control mechanisms to manage dispensing volume, rate, and duration. Internal pathways guide the material toward the outlet while preventing leakage or backflow. The processing unit ensures precise, repeatable dispensing aligned with the recommended treatment parameters.

[0056] The present invention works best in the following manner, where the housing 101 provides the stable structure for operation. Upon activation, the touch-enabled display unit 102 mounted on the housing 101 is energized by the processing unit to enable tactile and visual interaction with the user. The user registration arrangement provided with the housing 101 captures biometric information of the user to create or retrieve the personalised profile. The user is guided to stand on the platform 105 extending from the bottom edge of the housing 101, and to place the required body part on the extendable plate 106 attached at the front portion of the housing 101. The scanning arrangement installed within the housing 101 then scans the body part placed on the plate 106, wherein at least one scanner mounted slidably performs the scanning operation after appropriate placement is detected.

[0057] In continuation, simultaneously, the questionnaire module displays medically relevant questions on the display unit 102 and receives responses from the user, while the document scanning means 109 provided in the housing 101 scans medical documents of the user to extract relevant information. All collected data is received by the analysis module, which includes the processing unit configured to analyse the scanning data, questionnaire responses, and extracted document information to determine one or more skin ailments. Based on the detected ailment, the intervention module, trained over one or more medical modalities, is activated to generate specific treatment recommendations along with directions for use. The generated outputs are presented to the user through the output module via the display unit 102. Thereafter, the carousel attached with the housing 101 by means of the extendable link 114 selectively positions one of the plurality of chambers 112, and the nozzle 113 dispenses treatment material as per user input and the output of the intervention module. During operation, the audible guidance provided through the speaker 111.

[0058] Although the field of the invention has been described herein with limited reference to specific embodiments, this description is not meant to be construed in a limiting sense. Various modifications of the disclosed embodiments, as well as alternate embodiments of the invention, will become apparent to persons skilled in the art upon reference to the description of the invention. , Claims:1) A skin ailment detection and treatment system, comprising:

i) a housing 101;
ii) a touch-enabled display unit 102 mounted on the housing 101 enabling tactile and visual interaction;
iii) a user registration arrangement provided with the housing 101, capturing biometric data of the user to create a personalised profile;
iv) a platform 105 extending from a bottom edge of the user to enable user to stand on;
v) an extendable plate 106 attached at front portion of the housing 101 for placement of a body part of the user for scanning;
vi) a scanning arrangement installed with the housing 101 to scan the body part of the user, the scanning arrangement comprising at least one scanner mounted slidably with the housing 101 for scanning the body part of the user placed on the plate 106;
vii) a questionnaire module displaying medically relevant questions to the user via the display unit 102 and receiving responses from the user;
viii) a document scanning means 109 provided in housing 101 to scan medical documents of the user to extract relevant information;
ix) an analysis module configured with a processing unit, receiving the data from the scanning arrangement, the questionnaire module and the document scanning means 109 to determine skin ailments including acne vulgaris, fungal infection, eczema, psoriasis, impetigo, cellulitis, warts and skin cancer;
x) an intervention module trained over one or more medical modalities, receiving the detected ailment from the analysis module, to output specific treatments for the specific ailments along with directions for the specific treatments;
xi) an output module displaying the outputs of the intervention module and the suggestion module via the display unit 102; and
xii) a carousel attached with the housing 101 by means of an extendable link 114, containing a plurality of chambers 112 stored with treatment material, a nozzle 113 provided with each of the chambers 112 for dispensing the material as per user input and the output of the intervention module.

2) The system as claimed in claim 1, wherein the user registration arrangement comprises a camera 103, and a fingerprint sensor 104 capture facial and fingerprint data of the user.

3) The system as claimed in claim 1, wherein the plate 106 is provided with cascading arrangement for extension of the plate 106.

4) The system as claimed in claim 1, wherein the sensing means comprises a near infrared (NIR) sensor and a colour sensor.

5) The system as claimed in claim 1, wherein the scanning arrangement comprises a hyperspectral imaging sensor capturing detailed spectral data of the skin to identify abnormal tissue and discoloration, a multispectral camera 107 capturing images across multiple wavelengths to detect variations in skin pigmentation, and texture, an infrared (IR) sensor detecting variations in skin temperature and blood flow, indicative of inflammation or infection, an imaging unit 108 capturing high-resolution images for visual analysis of skin conditions such as rashes, lesions, or wounds and a plurality of dermatological sensor embedded in the platform 105 scanning the feet of the user.

6) The system as claimed in claim 1, further comprising a plurality of proximity sensors and touch sensors installed on the plate 106 to detect appropriate placement of body part of the user on the plate 106 for initiating scanning.

7) The system as claimed in claim 1, wherein the document scanning means 109 comprises an optical sensor capturing images of the document and an OCR (optical character recognition) module extracting information from the images.

8) The system as claimed in claim 1, further comprising a printing unit 110 installed with the housing 101 to print the output of the output module.

9) The system as claimed in claim 1, further comprising a guidance arrangement comprising an imaging means installed with the housing 101, a guidance module detecting incorrect application of the treatment material by the user to generate guiding instructions from the display unit 102 and a speaker 111 provided on the housing 101.

10) The system as claimed in claim 1, further comprising a suggestion module receiving location of the user from a GPS (global positioning system) unit to suggest medical practitioners located in vicinity of the user.