68 results about "Anthropometric data" patented technology

A method and device for detecting a potential defect in an image comprises acquiring a digital image at a time; storing image acquisition data, wherein the image acquisition data includes at least one of a position of a source of light relative to a lens, a distance from the source of light to the lens, a focal length of the lens, a distance from a point on a digital image acquisition device to a subject, an amount of ambient light, or flash intensity; determining dynamic anthropometric data, wherein the dynamic anthropometric data includes one or more dynamically changing human body measurements, of one or more humans represented in the image, captured at the time; and determining a course of corrective action based, at least in part, on the image acquisition data and the dynamic anthropometric data.

The invention relates to an original number tailoring method for a clothing armhole, which comprises the steps that original clothing numbers, namely the armhole perimeter, the chest width, the back width, the shoulder width, the chest circumference and the clothing length are determined according to anthropometric data; the armhole is designed into a notched ellipse; a diagonal line of an external rectangle of the notched ellipse is a perimeter mark hy; and the ratio of the perimeter mark hy to the armhole perimeter is y; an hy operational method is created; a base line of the external rectangle of the notched ellipse and an armhole circumflexion identification line are determined according to the original clothing numbers, such as the armhole perimeter, the chest width, the back width, the shoulder width and the chest circumference; then, relevant points are determined; and an armhole perimeter line is drawn. The armhole tailoring method is quick in tailoring and high in the precision of the armhole tailoring line, meets the fast-paced requirements of the clothing market on clothing transformation, is applicable to the tailoring of high-grade clothing, and is simple, convenient and practical.

A method of manufacturing a patient interface for sealed delivery of a flow of air at a continuously positive pressure with respect to ambient air pressure to an entrance to the patient's airways includes collecting anthropometric data of a patient's face. Anticipated considerations are identified from the collected anthropometric data during use of the patient interface. The collected anthropometric data is processed to provide a transformed data set based on the anticipated considerations, the transformed data set corresponding to at least one customised patient interface component. At least one patient interface component is modelled based on the transformed data set.

The system provides the recommended fitting size of clothing. A first set of body dimensions including height, weight, and waist size; and, information regarding a selected article of clothing having a defined set of article dimensions are obtained. A first module computes a second set of human body dimensions. This module includes a first mathematical model generated by a statistical analysis of a human anthropometric database. A second module is configured to compute a recommended fitting size based on: 1) the first set of human body dimensions; 2) the second set of human body dimensions; and, 3) the defined set of article dimensions. This second module includes a data base containing clothing related look up tables for use in computing the recommended fitting size for the particular article of clothing. The second set of human body dimensions includes neck size for a clothing top, and pants size for a bottom.

An exercise equipment and method for use is disclosed having a program that calls for user specific anthropometric data and then utilizes the data to create a user specific workout program based on the user's physical characteristics. The user inputs of personal anthropometric data includes, but is not limited to, sex, height, weight, goals, maximum heart rate, maximum run speed, maximum walk speed, and VO2 max. These inputs are used to optimize a workout program either in single use or multiple use applications. Moreover, data can be stored locally, on a network, or transferred to a cloud based repository for recall.

The invention relates to a method for determining a cardiovascular performance reserve for each individual patient, comprising the steps of: a) receiving input physiological data from the patient for obtaining a parameter Z which is or approximates the product of the Stroke Volume (SV) by the Systemic Vascular Resistance (SVR); b) providing a value representing the Respiratory Rate (RR) of said patient, wherein the Respiratory Rate (RR) value is provided by measurements using dedicated device(s), calculations from the input physiological data or manually by using best estimate; c) providing anthropometric data of said patient for calculating the Body Surface Area (BSA) of said individual, wherein the anthropometric data includes at least body dimensions (such as height and weight) of said patient; d) calculating the Cardiovascular Reserve (CVR) by using said Z parameter and said RR according to following formula: CVR=(Z/RR); e) calculating a Cardiovascular Reserve Index (CVRI) by standardizing said CVR (by said BSA) and normalizing it to a scale of 1 according to the following formula: CVRI=CVR/(BSA*4); and outputting said Cardiovascular Reserve Index.

A non-contact measuring method in pediatrics is disclosed. An infant model is established by acquiring a human image and a depth image of a subject infant; updating the infant model by acquiring a plurality of anthropometric characteristic points and finally obtaining an anthropometric data of the subject infant from the updated infant model. This invention also provides an apparatus to achieve the above mentioned measuring method. An infant model which includes anthropometric characteristic points and 3D surface models is established based on a human image acquired by an image acquisition module and a depth image acquired by a depth information acquisition module in conjunction with an algorithm program built in a data acquisition and processing module. Human anthropometric data is obtained by analyzing the infant model. The non-contact measuring method and measuring apparatus in pediatrics make the measuring process more humane without contacting a subject body.

The invention discloses a clothing shoulder-bust dart variant ratio original number clipping method. According to the method, garment measurements of shoulder breadth, chest circumference, waistline, chest breadth and armhole circumference are determined according to the clothing type requirement and human body measuring data, the chest-waist difference is determined to be BW, the shoulder-bust dart variant ratio coefficient is determined to be 10:BW', and the amount of the shoulder-bust dart changing along with changes of clothing types and models is obtained through a shoulder bust dart tip, a dart position mark, a shoulder-bust dart variant ratio coefficient line BW', a dart length line A and a dart opening line C. By means of the clothing shoulder-bust dart variant ratio original number clipping method, the problems existing in a clipping method that clothing of multiple models are clipped by the same volume of shoulder-bust dart are solved, and the method has very high practical value.

The invention relates to a JFT original number tailoring method of a clothing sleeve top shape. Clothing original numbers of specifications such as the armhole perimeter, the sleeve length and the chest circumference are determined according to human body measurement data and clothing styles. The sleeve shape is finished by arranging a sleeve top base line J, a sleeve width line F and a sleeve top guiding line T. The method is proved to be reasonable and feasible according to practice. According to the JFT original number tailoring method for the clothing sleeve top shape, sleeve top shapes needed by various clothing styles and sizes can be obtained according to the clothing original numbers directly, and the JFT original number tailoring method of the clothing sleeve top shape is simple, practical and convenient to use.

A method for the automatic adjustment of a cockpit inside a road vehicle comprising the steps of determining anthropometric data of a driver; processing an ergonomic position of a model of the driver sitting on board the road vehicle; processing an optimal configuration of the cockpit; operating a plurality of actuator systems so as to cause the cockpit to reach the optimal configuration; wherein the ergonomic position of the model is processed in association with a minimum ground visibility; a minimum visibility of a control panel; and at least one first comfort angle of a body joint of the driver.

The invention discloses a variance-ratio original-number cutting method for a clothes side breast dart. The method comprises the following steps: determining the clothes specifications of chest circumference, waist circumference, shoulder width, chest width and armhole circumference according to the requirement on clothes style and human body measurement data; determining that the chest-waist difference is BW and the side breast dart variance-ratio coefficient is 10:BW'; acquiring the side breast dart amount which varies along with the style and model variations of the clothes according to a side breast dart point, a dart opening point, a side breast dart variance-ratio coefficient line BW', a dart length line A and a dart opening line C. By adopting the method, a large number of problems existing in a cutting method which applies an identical side breast dart amount to clothes of various models in the prior art are effectively solved, and a very high practical value is achieved.

The invention relates to a BN original number design clipping method for clothing front cut. Clothing specification original numbers of the neck circumference, chest circumference, chest height, clothing length and lap allowance are determined according to human body measured data and a preset clothing style, the neck circumference is set as N, the chest circumference is set as B, through B and N, the front cut cardinal number BN is determined, a front cut line is designed, and the front cut amount is acquired. The BN original number design clipping method for the clothing front cut is rapid in cutting and can meet the requirement of the clothing market on clothing conversion precision and speed.

The invention relates to an XE original number tailoring method of a clothing chest and shoulder difference. Clothing original numbers of the shoulder width, the chest circumference, the clothing length, the collar length and the waist line height are determined according to human body measurement data and predetermined clothing styles; the small shoulder length is determined from 1/2 of the shoulder width element, the shoulder sloping amount is commuted, the chest and shoulder difference is then determined, and therefore the width and the height of an armhole are determined. The tailoring method of the clothing chest and shoulder difference is simple and practical, and the chest and shoulder difference is directly determined by the original number, namely the shoulder width.

The present application discloses a method of producing a knee replacement implant, an implant for knee replacement formed by using the method, and a knee replacement implant. The method includes: defining a hip center, a knee center, an ankle center and a posterior femoral condylar axis of a lower limb; generating femoral geometric parameters and tibial geometric parameters, the femoral geometricparameters and the tibial geometric parameters being measured in relation to the hip center, the knee center, the ankle center and the posterior femoral condylar axis; collecting anthropometric datafrom a defined population using the femoral geometric parameters and the tibial geometric parameters; and creating a femoral component and/or a tibial component using the collected anthropometric data.

The invention relates to a device and method for measuring the mechanical energy from a moving human body in real time. The method specifically comprises the following steps: S1, acquiring human bodyskeleton joints of a target human body, normalizing movement directions, and setting a skeleton coordinate system; S2, carrying out contour division, identifying coordinates of skeleton joints by combining with the skeleton coordinate system, and dividing the skeleton joints into multple links; S3, acquiring anthropometric data, and determining link length and link quality; S4, calculating the centroid of the links; S5, acquiring rotation information of skeleton joint coordinates, and calculating translation kinetic energy, rotation kinetic energy and potential energy of the links to serve asinternal work of target human body motion; S6, calculating a centroid movement track of the target human body, and calculating the kinetic energy and potential energy of the target human body according to the centroid movement track to serve as external work of the target human body motion; and S7, adding the internal work to the external work to obtain the mechanical energy of the target human body and the link acting efficiency of a single link. Compared with the prior art, the method has the advantages of simple structure, convenience in cost, small site limitation and the like.

The invention discloses a figure-shape underwear customization method and device; the method comprises the following steps: responding to a figure-shape underwear customization instruction, and obtaining human body measuring data; parsing the figure-shape underwear customization instruction, and obtaining customized figure-shape underwear parameters and figure-shape underwear quantity; forming a figure-shape underwear customization order according to the human body measuring data, the figure-shape underwear parameters and the figure-shape underwear quantity; sending the figure-shape underwearcustomization order to a production workshop client end. The method can improve the figure-shape underwear customization process efficiency and accuracy.