NEURO-SIGNAL CELL PHONE

Abstract

This invention relates to a neuro-signaling mobile phone that can be used in advanced mobile communication systems, capable of self-charging by collecting energy from the environment, self-healing thanks to its biopolymer nanofiber body, transforming into different forms thanks to its amorphous flexible screen, and providing silent, feeling-based communication by interacting directly with the user at the neural level through its neuro-signal interface. Its features include: a device body (1) made of biopolymer nanofibers with a spiderweb-like structure that has both flexibility and self-healing properties, enabling the self-repair of micro-cracks and scratches on the surface by rebuilding molecular bonds; and a screen (2) made of an amorphous biopolymer-liquid crystal mixture that can operate as a classic screen in flat mode according to user requirements, create micro-reliefs in key mode to provide tactile key feel, or interact with bioluminescent crystals to project a three-dimensional image in holographic mode.The device has a bioluminescent layer (3) on its front surface containing photosynthetic micro-algae capsules and bioluminescent proteins, which converts ambient light into electrical energy through biological processes while simultaneously transmitting notifications in the form of light vibrations, providing a noiseless and distraction-free visual-sensory notification system; a pressure-sensitive touch button (4) that is normally invisible on the screen surface but emerges as a micron-level relief when activated; a neuro-signal surface (5) located on the side of the device, consisting of nano-electrode arrays that detect micron-level neural vibrations in fingertips; and a piezoelectric layer (6) located in the bottom layer of the device body, consisting of nano-generators that convert mechanical energy from user movement, touch, or surface vibrations into electrical energy.

Description

1 TARIFF NEURO-SIGNAL CELL PHONE Technological Field: 5 This invention is a biopolymer that can self-charge by gathering energy from the environment. Self-healing thanks to its nanofiber body, and different thanks to its amorphous, flexible screen structure. forms that can transform and interact directly with the user at the neural level via a neuro-signal interface. Advanced mobile communication that enables silent, emotion-based communication through interaction 10 It is related to neuro-signaling cell phones that can be used in these systems. State of the Art: Today, mobile phone technologies are largely electronic, mechanical, and chemical. 15 It is shaped by the limitations of its components. Smartphones offer high performance and much more. Despite offering functionality, considerations include energy consumption, fragility, ergonomics, and sustainability. It faces fundamental technical limitations in areas such as battery life and portability. And durability issues are the most critical factors negatively impacting user experience. It is among them. Today's mobile devices require constant energy, so charging them is crucial. It operates dependently on its infrastructure; this leads to concerns about energy efficiency, portability, and environmental impact. This creates a significant disadvantage in this respect. In the mobile phone industry, fast charging technologies are used to extend battery life. Although high-capacity lithium-ion batteries and portable power banks have been developed, these 25 The solutions have not eliminated the chemical lifespan limitation; on the contrary, they require constant charging of the devices. This has made it dependent on the battery cycle. This situation affects battery performance in the long run. It reduces energy consumption, leads to heating problems, and limits energy efficiency. Similarly, solutions to improve screen durability (for example, Gorilla Glass) or flexible OLED panels) offer only temporary resistance to breakage; high 30 Due to limitations such as cost, short lifespan and complex production processes, it is not widespread and It is not a permanent solution. 2 From the perspective of notification systems, classic options include audible alerts, vibration, or light-based alerts. These methods cause stress, distraction, and cognitive fatigue in the user. systems, especially in environments requiring quiet operation or focus, cause disturbance. It creates and negatively affects the user's interaction with the environment. Furthermore, 5 The devices' fixed form factor; lack of ergonomic fit, accessibility issues, and different use cases (e.g. wearable technology or large screens) (The use of multimedia) creates disadvantages such as difficulty in adaptation. In the utility model application numbered CN214612275U, “Self-Healing 10 The description refers to a "High-Performance Curved Screen Mobile Phone Protector Film". The invention is a curved-screen mobile phone protector with self-healing performance. It offers a screen protector film for curved screen mobile phones. It is attached to your phone. It consists of a pressure-sensitive adhesive layer and a TPU elastic. Consisting of layers, a PET layer and a self-healing hardened film, 15 The pressure-sensitive adhesive layer is sequentially placed on one surface; preferably, A flat section and a curved edge section are attached to each other; the flat section forms a pocket. It is used to attach the flat window of the phone and the curved edge part of the cell phone. Used for attaching the curved surface section; pressure-sensitive adhesive layer, TPU The elastic layer and the self-healing hardened film of the flat part, the 20 of the mobile phone It extends towards its curved surface, forming an arc edge section, self-healing. The hardened film stretches and protrudes downwards, forming a protruding piece. The lower surface of the protruding part is bonded with a TPU elastic layer, and the side of the protruding part... The surface is bonded with a PET layer; the PET layer is attached to the arc edge. Because it is placed, the PET layer is not placed on the arc edge portion, arc edge bending 25 and can be firmly attached in the bonding method, meanwhile, soft film and rigid film. The film's properties are combined, bonding a flat surface and a curved surface area. Performance is effectively achieved through regionalization and hardening. It is replaced by self-healing, so the protective film on the scratches Repairability is improved. 30 3 The invention described above provides only a superficial layer of protection and It does not offer a solution integrated into the structural integrity of the device. The invention itself... The self-healing feature allows simple scratches to be repaired through elastic deformation of the surface. It is aimed at eliminating and protecting against deep cracks, impacts or chemical corrosion. It is ineffective. Furthermore, the protective film structure only covers the outer surface of the screen. its applicability to other components of the device (e.g., housing, edge or power) The film, TPU, and modules do not create any durability or repair effect. Because it is made by bonding PET layers together, the layers are durable for long-term use. Separation between surfaces, loss of elasticity, and optical distortions can occur. In addition to this... Since it is an adhesive-based system, it is not suitable for high temperatures, humidity, or prolonged use. Under these operating conditions, adhesion performance decreases, and the protective layer peels off the surface. Problems such as separation or bubble formation occur. Therefore, the word The solution in question is a temporary measure that provides only superficial protection, an integrated self-healing or long-term structural resilience mechanism It does not offer. 15 In the utility model application numbered CN201928319U, the design is "Charging with a Piezoelectric Module". The invention describes a "Mobile Phone" that adopts new energy technology. The current mobile phone charging module is structurally complex and has limited applications. 20 charged by a piezoelectric module used to solve the problem of not being charged It describes a mobile phone. The phone is charged by a piezoelectric module. The phone consists of a keyboard, a motherboard, and a piezoelectric module. The piezoelectric module is connected between the keyboard and the motherboard; it detects the electricity generated by pressing the keys. It obtains mechanical energy and this mechanical energy will be stored in the cell phone's battery. It converts mechanical energy, produced by pressing buttons, into electrical energy. 25 It can store electrical energy, is easily rechargeable, and is simple and convenient to use. It is free of pollutants. The invention described above has very limited efficiency in terms of energy production. The system works solely with piezoelectric modules placed under the keyboard keys, 30 This causes energy to be generated only during the act of pressing a key. This situation eliminates the continuity of energy harvesting and reduces the overall power of the device. 4 It falls short of meeting the requirement. Moreover, these types of modules require additional components in the device's internal structure. It takes up more space and increases mechanical complexity; this leads to increased production costs. Increasing the weight and thickness of the device while raising it. Piezoelectric module Its operation based on a conventional battery still makes the device compatible with chemical storage elements. It creates dependence and does not offer a truly energy-independent solution. Furthermore, 5 This system's operation solely through manual action is an energy-intensive system dependent on user interaction. creating a cycle of passive energy harvesting (e.g., environmental vibration, light, or motion) (energy) is not possible. Therefore, the invention does not utilize the piezoelectric principle. along with implementing it, at the high efficiency required by modern mobile devices, It cannot meet the requirements of autonomous and sustainable energy production technology. 10 In conclusion, a new one that can overcome the disadvantages mentioned above. Technology is needed. Description of the invention: 15 This invention is a neuro-signaling pocket that can overcome the disadvantages mentioned above. It is a phone whose features include: energy efficiency, durability, ergonomics, and multiple options. advantage of use, advantage of notification, advantage of sustainability, advantage of cost, high It provides a user experience advantage. 20 The invention eliminates many of the fundamental problems faced by classic smartphones. With a layered technology architecture, energy, durability, ergonomics, notification management, It offers significant technical benefits in terms of sustainability and cost. The device, Thanks to the bioluminescent layer and the piezoelectric layer, it continuously draws energy from the environment. 25 It generates its own energy by collecting data; thus, there is no need for external charging or battery replacement. It doesn't hear. This hybrid energy harvesting mechanism ensures the device's energy independence. This makes the battery life practically limitless. The user can adjust the battery life as they move or as the device is exposed to light. As long as there is exposure, energy production continues; this leads to both energy efficiency and... It is revolutionary in terms of sustainable use. 30 In terms of durability, it consists of spiderweb-like biopolymer nanofibers. The device housing is made of molecules that can self-repair scratches, cracks, and microfractures. It has a structure that greatly reduces the need for service or spare parts for the device. By eliminating the need for self-protection, it ensures long-lasting use. The screen and outer surface protect themselves. Its ability to renew increases the physical durability of the device while also reducing maintenance costs. It minimizes. In this respect, the invention is not only a consumer electronics product, but also... It can be considered a structural system that heals itself over time. In terms of ergonomics and versatility, the invention features a liquid crystal elastomer-based surface. Its architecture enables the device to dynamically change its physical form. It enables the user to use a single device in the form of a phone, tablet, or wristband; this This increases portability and eliminates the need for different devices. It removes it. Thus, the device is a desktop, mobile, and wearable technology. It transforms into a platform. The neurosignal surface receives signals not through sound or vibration, but directly through sensation-based micro-reactions. It transmits signals through this system. This system provides the user with a quiet, distraction-free and stress-free experience. It offers a notification experience that doesn't create a distraction, especially in busy or quiet environments. The device's ability to transmit information without disturbing the environment is a significant technical advantage. It provides. 20 The invention also represents an innovative contribution to environmental sustainability. Bioluminescent layer that provides energy production from natural resources and is long-lasting. The biopolymer casing reduces the device's carbon footprint and the amount of electronic waste. It reduces costs. Therefore, the invention is a "green technology" compatible with circular economy principles. 25 It stands out as a product with a long service life, energy efficiency, and self-repair capabilities. Thanks to its capabilities, it offers economic and environmental benefits for both individual users and society. It provides benefits. The invention's components can be easily fastened together, making it easy to assemble. 30 It is being installed, and the costs are low thanks to the short assembly time. Furthermore, the invention has a robust structure. 6 Explaining the Figures: The invention will be described by referring to the attached figures, so that the features of the invention can be explained. will be understood and appreciated more clearly, but the purpose of this invention is not to reveal this particular 5 It is not about limiting it with regulations. On the contrary, the invention is defined by the accompanying claims. all alternatives, modifications, and options that could be included within the defined area The aim is to cover their equivalences. The details shown are only for the present invention. It is shown to illustrate the preferred arrangements and both the methods the most useful 10 of the rules and conceptual features of the invention, as well as its shaping. It should be understood that they are presented to provide a readily understandable definition. This in the drawings; Figure 1 is a perspective view of the system. Illustrations that will help understand this invention are shown in the attached image. They are numbered and their names are given below. Explanation of References: 1. Device Body 2. Screen 3. Bioluminescent Layer 4. Touch Button 5. Neuro-Signal Surface 25 6. Piezoelectric Layer Description of the Invention: The invention consists of biopolymer nanofibers with a spiderweb-like structure that offers both flexibility and 30... and also has self-healing properties, repairing micro-cracks and scratches on the surface The device housing enables self-repair by re-establishing its molecular bonds. 7 (1), produced from an amorphous biopolymer-liquid crystal mixture, according to user requirements It can function as a classic screen in flat mode, and has micro-embossed displays in key mode. by creating a tactile touch experience or interacting with bioluminescent crystals The screen (2) which can project three-dimensional images in holographic mode is located on the front surface of the device. The area contains photosynthetic microalgae capsules and bioluminescent proteins, medium 5 It converts light into electrical energy through biological processes while simultaneously transmitting signals. transmitting light in the form of vibrations, creating a noise-free and distraction-free visual-sensory experience. The bioluminescent layer (3) that provides the notification system, under normal conditions on the screen surface It is invisible at first, but when activated it creates a micron-level relief on the surface. The pressure-sensitive touch button (4) that appears as shown is located on the side of the device. positioned to detect micron-level neural vibrations in the fingertips The neuro-signal surface (5) consisting of nano-electrode arrays and the bottom of the device body positioned on the surface, from user movement, touch or surface vibrations piezoelectric devices consist of nano-generators that convert mechanical energy into electrical energy. It has layers (6). 15 The invention integrates liquid crystal elastomer-based layers into the device, making it suitable for phones and tablets. or allowing for morphological transformation into different form factors such as bracelets The device has a body (1). The invention describes a device that changes morphological shape in response to electro-thermal stimuli, allowing the user to... has a touch button (4) that provides physical feedback sensitive to touch is happening. The invention uses an artificial intelligence algorithm to transform these signals into meaningful interactions, and the same 25 by transmitting notifications in the reverse direction as micro-vibrations or sensory signals over time It has a neuro-signal surface (5) that creates a silent, feeling-based communication experience. is happening. The invention enables both battery-free operation as a key component of the device's energy harvesting system. 30 It provides both the possibility and the electrical charge required for the activation of the deformed surface. 8 by generating the stimulus, it makes the device's energy cycle sustainable within itself. It has a piezoelectric layer (6). Detailed Description of the Invention: The components that make up the invention are basically: device body (1), screen (2), bioluminescent layer (3), touch button (4), neuro-signal surface (5) and piezoelectric layer (6) is happening. The invention generally refers to 10 creatures that can generate their own energy, repair themselves, and change shape. and relates to a biomorphic cell phone structure capable of establishing neuro-signal-based communication. The system consists of six fundamental elements that work in a multi-layered and integrated manner. It consists of: device body (1), screen (2), bioluminescent layer (3), touch screen. button (4), neuro-signal surface (5) and piezoelectric layer (6). These elements are functional. in a way that will provide both structural durability and energy efficiency, 15 within an architecture composed of biopolymers and nanotechnology materials It is integrated. The device body (1) is a spiderweb-like mesh structure made of biopolymer nanofibers. a skeleton that has been given high flexibility and self-repair capabilities thanks to 20 This body (1) is the molecular system of micro-scratches and cracks that occur on the surface. It enables spontaneous repair under room conditions by re-establishing its connections. Body (1) It is also integrated with flexible layers based on liquid crystal elastomer; thus showing morphological changes with externally applied electrical or thermal stimuli It can change the physical form of the device. This allows the device, in its flattened state, to resemble a classic smartphone. It can be used in this form, or expanded to form a tablet, or bent into a wristband. It can transform into its form. The body (1) undergoes this shape change process without any mechanical Without hinges or motor mechanisms, through the structural responses of the material. This feature improves both the ergonomics and durability of the device. The screen (2) is a multifunctional screen made from an amorphous biopolymer-liquid crystal mixture. It is the display surface. This screen (2) is capable of operating in different modes: 9 In "flat mode," it functions as a classic touchscreen, while in "key mode," it uses a surface. It creates a physical touch sensation by forming micron-level reliefs on its surface; "holographic" In "mode", the light emitted from bioluminescent crystals is diffused by a laser diffusion system. Through interaction, it creates three-dimensional images in the air. In this way, the user can control the device. not only a two-dimensional screen, but also a three-dimensional interactive tool. 5 It can be used as. The screen (2) interacts directly with the bioluminescent layer (3). It is in this state and also contributes to the energy harvesting process. The bioluminescent layer (3) located on the front surface of the device contains photosynthetic micro-algae. It is an active energy-producing layer consisting of capsules and bioluminescent proteins. This 10 layer (3), its own biochemical in ambient light or low-light environments It converts light into electrical energy using its reactions. At the same time, the device It provides a visual-sensory notification by producing light vibrations at a specific frequency when it receives a notification. It acts as a mechanism. Thus, without the need for audible or vibrating warnings, Information is conveyed to the user visually and neuro-haptically. This layer (3) is the classic notification 15 a quiet form of communication that reduces distraction and cognitive load compared to other mechanisms It provides the method. The touch button (4) is designed to be integrated with the screen (2) surface, electro- It is a control element activated by thermal stimuli. Normally invisible, it contains 20... these buttons (4) are activated from the surface when the user's finger pressure or heat change is detected. It rises in a micron-level embossed form. This allows the user to see a completely flat surface. It can operate by receiving physical feedback on the surface. Touch buttons (4), It uses the energy produced by the piezoelectric layer (6) and with this energy It exhibits dynamic surface response. This design eliminates the need for mechanical keys while providing 25 It protects the integrity of the device and increases its resistance to liquids, dust, or impacts. The neuro-signal surface (5) is located on the side of the device and on the fingertips nano- It consists of electrode arrays. This surface (5) is 30 from the user's finger movements. or by receiving data from neural microsignals and processing it through artificial intelligence algorithms It converts them into commands. For example, a light touch means "back," medium pressure means "confirm," and a long press means "confirm." The press can be interpreted as a "menu" command. The same mechanism works in the reverse direction; the device When it receives a notification, it sends micro-vibrations or sensations to the user via the neuro-signal surface (5). By sending a signal, it delivers notifications silently and directly to neural perception. This feature, especially in quiet environments or situations requiring attention, the user's surroundings It allows them to obtain information without causing disturbance. 5 The piezoelectric layer (6) is the energy located between the device body (1) and the screen (2). It is a transformative substrate. The user's movement, touch, or the device's environment The vibrations are converted into mechanical pressure in this layer (6) and piezoelectric nano-generators It is converted into electrical energy through this process. The resulting energy is then used in micro supercapacitors. stored on both the screen (2) and the touch buttons (4) and the neuro-signal surface (5) It can be used by the piezoelectric layer (6), also shape-changing body. (1) required for electrical activation of liquid crystal elastomers on it It also provides the power source. Thus, the device does not need an external battery or charger. It can maintain its own energy cycle without hearing it. 15 In terms of its operating principle, the system is a multi-layered energy, sensing, and communication loop. It is based on the bioluminescent layer (3) and the piezoelectric layer (6), from the environment. It collects and stores energy; this energy is used to power functional devices such as the screen (2) and touch buttons (4). nourishes the surfaces. During user interaction, the neuro-signal surface (5) neural micro 20 It detects vibrations, and the device's artificial intelligence processes these signals to provide appropriate responses. It forms. All components are integrated on the biopolymer body (1) Because it works this way, the device's energy consumption is minimized while its structural integrity is preserved. It is protected. 30

Claims

11 REQUESTS 1- The invention relates to a neuro-signal mobile phone, the characteristic of which is;  Composed of biopolymer nanofibers, its spiderweb-like structure offers both flexibility. and also has self-healing properties, micro-cracks on the surface and 5 spontaneous repair by rebuilding the molecular bonds of scratches providing device body (1),  Produced from an amorphous biopolymer-liquid crystal mixture, user Depending on the requirement, it can operate as a classic screen in flat mode, and in key mode... micro-embossed patterns that can provide a tactile touch sensation or bioluminescent 10 A screen that can project three-dimensional images in holographic mode by interacting with crystals. (2),  Photosynthetic microalgae capsules located on the front surface of the device and bioluminescent proteins that convert ambient light into electricity through biological processes. while converting it into energy, it also sends notifications in the form of light vibrations. 15 a noise-free and distraction-free visual-sensory notification system by transmitting bioluminescent layer (3),  Normally invisible on the screen surface, but pressure that emerges from the surface in the form of micron-sized relief when activated sensitive touch button (4), 20  located on the side of the device, micron-level measurements on fingertips Neuro- signal surface (5) and  located on the lower layer of the device body, it is sensitive to user movement, touch, or Nano-25 converts mechanical energy from surface vibrations into electrical energy. It has a piezoelectric layer (6) consisting of generators. 2- The neuro-signaling cell phone mentioned in Claim 1 is characterized by its liquid crystal elastomer. integrated with base layers, the device comes in different forms such as phones, tablets or bracelets. 30 with a device body (1) that allows it to transform morphologically into its factors It is characterized by its being. 12 3- The neuro-signaling cell phone mentioned in Claim 1 is characterized by its electro-thermal feature. morphologically changing shape in response to stimuli and responsive to the user's touch. It is characterized by having a touch button (4) that provides physical feedback. It is done. 4- The neuro-signaling cell phone mentioned in Claim 1 is characterized by its artificial intelligence. with its algorithm, it transforms these signals into meaningful interactions and at the same time By transmitting notifications back in the opposite direction as micro-vibrations or sensory signals, it is silent and intuitive. by having a neuro-signal surface (5) which creates a communication experience based on It is characterized. 10 5- The neuro-signaling cell phone mentioned in Claim 1 is characterized by its ability to both power the device and... It provides the possibility of operating without batteries as a basic component of the harvesting system, as well as its shape. The device's power is supplied by generating the electrical stimulus required to activate the altering surface. 15 with a piezoelectric layer (6) which makes its cycle sustainable within itself It is characterized by its being. 25

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