NON-INVASIVE NANOSENSOR SYSTEM TO DETERMINE ANALYTE CONCENTRATION IN BLOOD AND/OR BODILY FLUIDS.
First Claim
1. The core technology and features of the device are as follows. A device can be used individually and/or collectively. The device can be customized extensively by a user, meaning, that features and sensors that can be activated or deactivated by the user during a setup of the device prior to use, to perform concentration analysis measurements of any of the following:
- gases, liquids and solids, biological material, organic, inorganic chemicals, electromagnetic radiation and ionization radiation. The device consists of a physical shell that will allow the user to attach it to any body part. The device and/or its individual sensors may be attached to other body parts as required by the user, as a method to customize the device to the needs of the user. Each device contains any combination of the following;
a) multiple chemoreceptive;
b) electromagnetic and/or;
c) environmental sensors. Each device contains a near-infrared wavelength pulse wave photodiode emitter source, a photoelectric sensor, multiple chemoreceptive, electromagnetic and environmental sensors, a near-infrared wavelength pulse wave photodiode emitter source, a photoelectric sensor, microprocessor, a signal amplifier, signal filtering, error correction algorithms, analog-to-digital converter and wireless electromagnetic data transmitter, to transmit processed data from a local device to a remote device for further processing and/or data storage (e.g. on a server, on a cloud-based storage system, etc) and/or visual representation via software. electrical system that is sufficiently isolated from the surrounding environment, in accordance with national and international, industrial, occupational health and safety standards (physical shell that will waterproof and/or water repellant and/or suitable for light underwater work, to a depth of X meters). The device provides data that can be streamed, recorded and stored locally and/or remotely, for the end-user, for the purposes of data science, such as correlative analysis, data collections, predictive modelling, artificial intelligence, data mining and machine learning.
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Accused Products
Abstract
The device is an ultra-low power, non-invasive in-vivo blood analyte sensor system incorporating multiple sensors including a carbon base and/or carbon base material coated with metallic nanoparticles and/or metallic nanoparticle nanoprobes, as a modified Clark electrode sensor system, that detects hydrogen peroxide concentrations, pH, and/or glucose concentrations (and other analytes) in bodily secretions (e.g. tears, saliva, sweat). The device consists of multiple chemoreceptive sensors, a microprocessor, a signal amplifier, signal filtering, error correction algorithms, analog-to-digital converter and wireless electromagnetic data transmitter to a remote device for further processing and/or data storage (e.g. on a server, on a cloud-based storage system, etc) and/or visual representation via software. The method involves applying the nanoprobe sensor array to skin tissue and the resulting electrical impulses correlate with glucose concentration within liquids such as tears, saliva, blood, etc. The collected data is then represented visually on a computer (handheld, smart-phone, desktop, laptop, etc) via software. The device is powered by ambient electromagnetic radiation, thermoelectric and/or solar power and/or rechargeable battery. The device is placed against the skin or immersed in a sample for sensor measurement. Single and continuous data collection is possible. The device can be reused repeatedly, re-sterilized and it is a high accuracy, low-cost option for multiple use glucose concentration measurements. The device can monitor blood glucose for Type I and Type II diabetics and it is suitable for a wide range of applications including gases, liquids and solids, biological, organic and inorganic chemical analysis.
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Citations
16 Claims
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1. The core technology and features of the device are as follows. A device can be used individually and/or collectively. The device can be customized extensively by a user, meaning, that features and sensors that can be activated or deactivated by the user during a setup of the device prior to use, to perform concentration analysis measurements of any of the following:
- gases, liquids and solids, biological material, organic, inorganic chemicals, electromagnetic radiation and ionization radiation. The device consists of a physical shell that will allow the user to attach it to any body part. The device and/or its individual sensors may be attached to other body parts as required by the user, as a method to customize the device to the needs of the user. Each device contains any combination of the following;
a) multiple chemoreceptive;
b) electromagnetic and/or;
c) environmental sensors. Each device contains a near-infrared wavelength pulse wave photodiode emitter source, a photoelectric sensor, multiple chemoreceptive, electromagnetic and environmental sensors, a near-infrared wavelength pulse wave photodiode emitter source, a photoelectric sensor, microprocessor, a signal amplifier, signal filtering, error correction algorithms, analog-to-digital converter and wireless electromagnetic data transmitter, to transmit processed data from a local device to a remote device for further processing and/or data storage (e.g. on a server, on a cloud-based storage system, etc) and/or visual representation via software. electrical system that is sufficiently isolated from the surrounding environment, in accordance with national and international, industrial, occupational health and safety standards (physical shell that will waterproof and/or water repellant and/or suitable for light underwater work, to a depth of X meters). The device provides data that can be streamed, recorded and stored locally and/or remotely, for the end-user, for the purposes of data science, such as correlative analysis, data collections, predictive modelling, artificial intelligence, data mining and machine learning. - View Dependent Claims (2, 3, 4, 5, 5, 5, 6, 7, 8, 9, 10, 11, 11, 12, 12, 13, 14, 15, 16)
- gases, liquids and solids, biological material, organic, inorganic chemicals, electromagnetic radiation and ionization radiation. The device consists of a physical shell that will allow the user to attach it to any body part. The device and/or its individual sensors may be attached to other body parts as required by the user, as a method to customize the device to the needs of the user. Each device contains any combination of the following;
Specification