532 results about "Body composition" patented technology

The invented non-invasive vital signs monitor is in a flexible, nominally flat planar form having integral gel electrodes, a sticky-back rear surface, an internal flex circuit capable of sensing, recording and playing out several minutes of the most recently acquired ECG waveform data and a front surface that includes an outplay port. The invented non-invasive body composition ‘risk’ monitor includes a measurement device for monitoring one or more variables including body fluid mass, dehydration, respiratory rate, blood pressure, bio-impedance, cardiography such as cardiac output, and body conformation parameters. The risk monitor may be provided in a lightweight carrying case into which the vital signs monitor plugs. Thus the two monitors may be independent or they may be integrated into one portable, non-invasive device that can convey important patient data to / from a remote patient medical data center via wireless telemetry for oversight, treatment and possible intervention by a physician.

The invented non-invasive vital signs monitor is in a flexible, nominally flat planar form having integral gel electrodes, a sticky-back rear surface, an internal flex circuit capable of sensing, recording and playing out several minutes of the most recently acquired ECG waveform data and a front surface that includes an outplay port. The invented non-invasive body composition ‘risk’ monitor includes a measurement device for monitoring one or more variables including body fluid mass, dehydration, respiratory rate, blood pressure, bio-impedance, cardiography such as cardiac output, and body conformation parameters. The risk monitor may be provided in a lightweight carrying case into which the vital signs monitor plugs. Finally, a lightweight portable probe or transducer containing a transmissive or reflective electro-optical emitter and receptor in the infrared spectrum is fitted on a subject's finger or toe. Associated electronics energize and monitor the probe, detect cardio-rhythmic fluctuations therefrom, and process digital data over a prescribed window to produce a non-invasive, qualitative or quantitative measure of the subject's circulation. In accordance with one embodiment of the invention, a simple tri-color LED array is used to indicate the subject's circulation as being normal, reduced, or borderline. Thus the vital signs, bio-impedance, and circulation monitors may be independent or they may be integrated into one portable, non-invasive device that can concurrently monitor and locally display or remotely convey important patient data including circulation data to a local subject or physician or to / from a remote patient medical data center via wireless telemetry for oversight, treatment and possible intervention by a remote physician.

A behavior modification system includes a network of components that interact to collect various data and provide user feedback. The network may include a personal device, an Internet-enabled storage device and a hub capable of receiving communications from the personal device and communicating to the storage device. The personal device may include bio-impedance measurement circuitry, an accelerometer and a processor for determining energy expenditure based on data from the accelerometer(s). The system may include a smart hub capable of routing communications between various components within the system. The hub may include different transceivers for different communication protocols. The system may incorporate a low-power RF wake-up system. The system may include bio-impedance measurement circuitry that is reconfigurable to function as an alternative type of sensor. In other aspects, the present invention provides a method for measuring bio-resonance and a method for determining caloric intake from body composition and caloric expenditure.

A method of making, combining, and using a balanced multi-phase food mixture and a multi-phase beverage made thereof is incorporated into carbonated herb beverage, aerated tea, fast fermented grain drink, amino acid flavored beverage, alcohol soaked cocktail drink, and aerated vegetable beverage. The liquid phase comprises total small molecular mineral and sugar up to 350 mOsm, pH 3.5-7.8, sweetener up to 7 wt %, alcohol up to 3 wt %, protein up to 30 wt %, fiber 20-37 gram per 2000 calories, at least 30% of calories are derived from complex carbohydrate, and up to 5% by volume gas, which will release a meaningful smell when being consumed. The solid phase includes at least 10% by weight plant mix, complex carbohydrate, protein, fat, and a combination thereof The beverage is natural and balanced referred to physiological body composition for normalizing body composition and fluid metabolism toward optimal body fitness with increased sensory experience and satiety.

A wellness system monitors the controlled progress of patients under surveillance and includes a server base station which is generally off-site, a web-site interface and a local station at the point-of-use, which is generally a health or fitness center. A unique data base is created for each user and goals and objectives may be set with progress monitored. Typically, the user will respond to a survey or questionnaire to populate his specific database. This is combined with a professional assessment and an automated measurement of vital statistics such as weight, blood pressure and body composition as measured at the local station. Other data may be entered manually such as height, age and the like. In a more comprehensive system the invention is designed to monitor other data such as cholesterol and blood glucose, as well. The locally input data may be updated at will by the user or on behalf of the user by professional personnel.

The present invention relates to an apparatus and method for the non-invasive analysis of physiological attributes, such as heart rate, blood pressure, cardiac output, respiratory response, body composition, and blood chemistry analytes including glucose, lactate, hemoglobin, and oxygen saturation. Using a combination of multi-functioning disparate sensors, such as optical and electrical, improvements are made over existing physiological measurement devices and techniques. The special configuration of one or more multi-functional sensors is used to non-invasively measure multi-wavelength optical plus one or more of ECG, Bio-impedance, and RF-impedance spectroscopic data. This information is used to develop self-consistent, non-linear algorithm in order to derive the physiological attributes while compensating for various forms of interfering effects including motion artifacts, sensor attachment variability, device component variability, subject physical and physiology variability, and various interfering physiological attributes.

The present invention provides a multifunction health device, which comprises a meter and a platform. The meter has two electrodes arranged separately at its two sides or both arranged at its one side, and the meter has another electrode arranged in its bottom. The platform has four electrodes arranged in its top face, and a pressure sensor arranged in its inside. With or without some parts assisting, the single use of the meter can function as an ECG detector, a TENS machine, a thermometer, and a first sphygmomanometer. Connecting with the platform, the meter and the platform can function as an ECG detector, a weight scale, and a body composition estimator. Further, the meter can alternatively connect with a chassis thus functioning as a second sphygmomanometer, a stethoscope, a glucose meter, or a pulse oximeter.

Methods and apparatus for providing bioimpedance analysis are provided. In certain aspects, equivalent circuit frequency response models are provided which lead to improved correlations with MRI data. The frequency response models take account of body composition, including the fat component of a body segment. Data obtained by performing bioimpedance spectroscopy (BIS) and MRI on the calves of subjects illustrates the improved correlations achieved compared to single frequency analyses at 50 kilohertz and analyses performed using the conventional Cole-Cole model.

A human body measurement system and a method for using such a system. The human body measurement system includes a photographing unit that includes a plurality of cameras and a hub which send images, captured by the cameras, to a PC of an integrated controller through the hub, a weight scale configured to measure body weight of a subject of measurement, and a body composition analyzer configured to measure body composition of the subject of measurement.

Methods for affecting body composition include the use of amylin or amylin agonist(s). Total body weight may be reduced, maintained or even increased; however, the body fat is reduced or body fat gain is prevented, while lean body mass is maintained or increased.

A health management guideline advising device includes input means for inputting personal information of a measuring subject; measurement means for measuring weight and body impedance of the measuring subject; estimation means for estimating a body composition distribution of the measuring subject from the inputted personal information and the measurement result by the measurement means; storage means for storing the measurement result by the measurement means and an estimation result by the estimation means with a measurement date and time, prediction means for predicting future weight fluctuation from the stored weight and the body composition distribution; and display means for displaying the predicted future weight fluctuation. Furthermore, target setting means for setting a weight reduction target and determination means for determining whether or not the weight reduction target can be achieved based on the prediction result by the prediction means are preferably arranged.

The present invention is related to compounds of formula (I), or a therapeutically suitable salt or prodrug thereof, the preparation of the compounds, compositions containing the compounds and the use of the compounds in the prevention or treatment of disorders regulated by ghrelin including anorexia, cancer cachexia, eating disorders, age-related decline in body composition, weight gain, obesity, and diabetes mellitus.

The invention relates to an intelligent detection system for an intelligent and healthy toilet comprising: an identity identification module, a body composition analysis module, a gravity acquisition module, an image acquisition module, a urine acquisition device and a urine analysis device, wherein the identity identification module is used for identifying user identities through a fingerprint recognizer and buttons; the body composition analysis module is used for detecting body data and sending the data to a controller; the gravity acquisition module is used for detecting body weight and body sitting posture data and sending the data to the controller; the image acquisition module is used for acquiring the images of excrement and urine inside the toilet and sending the images to the controller for analysis; the urine acquisition device is used for collecting urine excreted by users; the urine analysis device is used for collecting the urine collected by the urine acquisition device for analysis and sending analysis results to the controller. The invention also discloses an intelligent detection method for the intelligent and healthy toilet. By means of the system and the method of the invention, when the user uses the toilet, body composition of the user is analyzed, the urine components and shapes of excrement are analyzed and user sitting posture is sensed; related health guidance opinion is provided through analyzing user health conditions according to the detected information.

A mobile, hand-held communication device with a digital display, and a 3D camera for acquiring a three-dimensional image of the human body is programmed to function as a digital anthropometer. The user digitizes anatomical landmarks on the displayed image to quickly obtain anatomical measurements which are used with a known morphological relationship to make an anatomical prediction for clothing measurement, body composition, orthotic and insert manufacturing, and postural displacement with accuracy and without external equipment.

A CPU (134) of a body composition measuring apparatus (100) drives a navel position indicator (118) so that it emits light. The height of a frame (114) is adjusted so that a beam of light from navel position indicator (118) irradiates the navel of a human subject. Plural sensors (106) are mounted on the frame (114), and each sensor measures a distance from the sensor to a position to be measured, whereby the abdominal width (X) of the human subject is determined. Subsequently, CPU (134) obtains measured values of weight (W) and bioelectrical impedance (Z). CPU (134) then reads an equation for calculating the visceral fat area and estimates the visceral fat area (Y) based on the measured abdominal width (X), weight (W), bioelectrical impedance (Z), and the equation.

In a display section, a measured value of information of a living body is displayed on a measured data display section, and a figure representing a human body including body parts such as arm and leg is displayed on a body display section. For example, a percentage of muscle and a percentage of body fat measured 30 days ago and a current percentage of muscle and percentage of body fat are compared with each other, and respective increase / decrease values are displayed on the measured data display section as well as the measured values. Further, a color of illumination in the background of the body display section is changed depending on a degree of the increase / decrease value. For example, the background of the body display section is illuminated in red when the percentage of muscle is decreased by a % or more, blue when increased by a % or more, and green when a percentage of variation is less than a % in comparing current data with data measured 30 days ago.

A body composition data acquiring apparatus has a main unit comprising: bioelectrical impedance measuring means, body weight measuring means, leg length measuring means, and body composition data calculating means wherein the bioelectrical impedance measuring means measures a bioelectrical impedance between both feet by use of a group of electrodes which make contact with the bottoms of the feet of a subject, the bodyweight measuring means measures the body weight of the subject, the leg length measuring means measures the leg length of the subject, and the body composition data calculating means calculates the body composition data of the subject based on at least the bioelectrical impedance, body weight and leg length measured by these measuring means.

A new, inexpensive and non-invasive fetal visualization process helps to locate fetal body parts and identify fetal positions without exposing the fetus to prolonged ultrasound irradiation. Associating location data with biological electrophysiology signal patterns and / or light absorption / reflection-related tissue-specific local fetal body composition data enables the generation of a 3D anatomical and functional map of the fetal body through the expecting mother's womb, which will be essential for long-term home monitoring of a fetus during pregnancy.

An abdomen width determiner determines an abdomen width value of a human subject. A memory stores a correlation between abdomen width values and waist circumferences of human beings. A waist circumference calculator calculates a waist circumference of the human subject on the basis of the abdomen width value determined by the abdomen width determiner and the correlation stored in the memory. The correlation stored in the memory may be expressed by the following regression formula: Y=aX+b where “Y” is a waist circumference of a human being, “X” is an abdomen width value of a human being, and “a” and “b” are constants.

To accurately acquire body composition information using data acquired by another device. Thus, there is provided a body composition monitor with scale including a communication unit for allowing input of biological component information (cross-sectional area, site length, subcutaneous fat percentage, visceral fat percentage, etc.) of a living body measured with another device such as an MRI, where step of calculating the body composition of the living body based on the biological component information, an impedance detected by an impedance detection unit, and a weight measured by a load detection unit is executed.

An activity-induced energy expenditure estimating instrument is provided which is capable of estimating an activity-induced energy expenditure with ease and high accuracy. The activity-induced energy expenditure estimating instrument comprises: body activity information measuring means, body specifying information acquiring means, body composition information acquiring means, and activity-induced energy expenditure computing means, wherein the body activity information measuring means measures body activity information, the body specifying information acquiring means acquires body specifying information, the body composition information acquiring means acquires body composition information, and the activity-induced energy expenditure computing means calculates an activity-induced energy expenditure corresponding to these body activity information, body specifying information and body composition information, by use of correlation data representing correlations between the body activity information, body specifying information and body composition information and an activity-induced energy expenditure.

An apparatus for measurement of an individual's body composition includes a pressure mat configured to fully support an adult supine patient and to provide a series of pressure readings at a series of cells over the surface of the pressure mat and then electronically transmits the readings to a computer or the like. The pressure readings along with other relevant clinical information such as the patient's weight are then used to determine the patient's body composition such as percent body fat, body density, total body volume, fat mass and fat-free mass.

To accurately measure the muscle mass, body-fat ratio and / or other information of the subject, the human body is divided into nine segments including the trunk, right and left forearms, right and left upper arms, right and left thigh, and right and left crura. Four distal voltage-measuring points Pv are determined at the wrists and ankles, and four proximal voltage-measuring points Pv are determined at the elbows and knees. Four current-carrying electrodes and four measuring electrodes are used. First, the measuring electrodes are attached to distal points, and the impedances of four limbs and the trunk are measured. Then, the measuring electrodes are moved to proximal points, and the impedances of four limbs and the trunk are measured. From the measurement result, the measurement value is calculated for each segment. Then, using estimation formulae created by a regression analysis based on the data collected with an MRI, the body composition such as a muscle mass is estimated from the measurement values of the impedances and body specific information including the height, weight, etc.

A seat cushion having a flexible and semi-rigid body is provided. The body has a seating surface, having a first area, and a support surface, having a second area, spaced apart from the seating surface forming a body thickness. The body has a body composition with a first percentage by volume of EVA (Ethyl Vinyl Acetate), substantially evenly mixed with additional materials, such as polyethylene, color pigment, polycarbonate, and / or dicumyl peroxide, in various percentages of the body composition. The seat cushion also has a plurality of spacing members spaced apart and substantially evenly distributed across the second area. The plurality of spacing members each have a spacing member composition with a second percentage by volume of EVA and with a third percentage by volume of rubber. The seat cushion further has a plurality of ventilation holes extending through the body from the seating surface to the support surface.

The present invention discloses a novel candle body composition for colored flame candles, which can be directly press-molded or provided in any containers in a form of bulk materials and combined with a candle combustion wick to form a colored flame candle. The candle body composition according to the present invention is also suitable for DIY articles. Compared with conventional solid colored flame candles, the colored flame candle according to the present invention can be manufactured in a simple manner, with the heat shaping step being dispensed with and the problem of environmental pollution being largely avoided. Furthermore, the colored flame candle according to the present invention has a good ignition property, a pure and sharp flame and a high retention of flame, and is an environmentally friendly product.

A system for evaluating health, wellness and fitness, and in particular, to a system that uses an ultrasound transducer to accurately measure fat thickness at a plurality of sites on the human body, records these measurements for long term monitoring, and based on the plurality of measurements calculates the total body composition. The system includes a central control unit to analyze the measurement and display the results in a variety of formats.

The present invention relates to a novel botanical compound as provided in structural formula I optionally along with excipients for improving body composition and the factors related to the pre-diabetic and diabetic conditions. It also relates to a process of manufacture of the novel botanical compound for improving body composition and factors related to the pre-diabetic and diabetic conditions. The present invention also relates to the use of the novel botanical compound for improving body composition, reducing body fat, increasing muscle mass, enhancing strength and improving impaired glucose metabolism. The present invention also relates to the use of the novel botanical compound for the improvement of factors related to the pre-diabetic and diabetic conditions.

A wellness system monitors the controlled progress of patients under surveillance and includes a server base station which is generally off-site, a web-site interface and a local station at the point-of-use, which is generally a health or fitness center. A unique data base is created for each user and goals and objectives may be set with progress monitored. Typically, the user will respond to a survey or questionnaire to populate his specific database. This is combined with a professional assessment and an automated measurement of vital statistics such as weight, blood pressure and body composition as measured at the local station. Other data may be entered manually such as height, age and the like. In a more comprehensive system the invention is designed to monitor other data such as cholesterol and blood glucose, as well. The locally input data may be updated at will by the user or on behalf of the user by professional personnel.

The present invention provides a multifunction health device, which comprises a meter and a platform. The meter has two electrodes arranged separately at its two sides, and another electrode arranged in its bottom. The platform has four electrodes arranged in its top face, and a pressure sensor arranged in its inside. With or without some parts assisting, the single use of the meter can function as an ECG detector, a TENS machine, a thermometer, and a first sphygmomanometer. Connecting with the platform, the meter and the platform can function as an ECG detector, a weight scale, and a body composition estimator. Further, the meter can alternatively connect with a chassis thus functioning as a second sphygmomanometer, a stethoscope, a glucose meter, or a pulse oximeter.