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203 results about "Human anatomy" patented technology

Multiple layer absorbent article

ActiveUS20030225383A1Stiffer in structural stabilityEasy to bendSanitary towelsBaby linensHuman anatomyFiber
An absorbent article is provided including a fluid permeable body facing surface and an absorbent core having a body facing side. An absorbent pledget is adhered to the body facing side of the absorbent core and is disposed between the absorbent core and the body facing surface. The pledget has a greater structural stiffness and a reduced surface area relative to the absorbent core. The pledget is configured to fit a human anatomy. In another alternate embodiment, the absorbent article has a fluid permeable coverstock configured to engage a body surface and defining longitudinal sides. The coverstock includes a bi-component fiber having a polypropylene inner core and a polyethylene outer sheath. An absorbent core of the absorbent article has a body facing side, an opposing side and extends longitudinally along the absorbent article. The absorbent core has arcuate outer ends and includes wood pulp and superabsorbent polymer materials. An hourglass shaped absorbent pledget is disposed between the absorbent core and the coverstock. The pledget includes airlaid material adhered to the body facing side of the absorbent core. The pledget further includes a three dimensional apertured acquisition film mounted to the airlaid material which engages the coverstock. The pledget has a greater structural stiffness and reduced surface area relative to the absorbent core. The absorbent core is configured to fold about the hourglass shape of the pledget and resist undesired deformity of the absorbent article. The coverstock includes adhesive coated elastic members disposed adjacent the longitudinal sides. The longitudinal sides are folded about a polylaminate backsheet to enclose the absorbent core and pledget.
Owner:FIRST QUALITY RETAIL SERVICES

Tri-planar controller motion rehabilitation and exercise platform

A rehabilitation and exercise device for facilitating and limiting motion and biomechanical forces along the horizontal and vertical axes in the saggital, frontal, and transverse planes of the human anatomy. The device consists of an elongated, substantially flat platform with somewhat rounded corners (24). The platform is made of a rigid material to prevent fracturing and bending and is further supported on the bottom surface by central support spines (30) and peripheral support spines (16). The platform provides a decreased slip top surface (10) by utilizing a recessed grid (20). The bottom surface of the platform (12) is configured with a larger diameter central platform attachment extension (28) and smaller diameter peripheral platform attachment extensions (32) which have internal recesses (14) configured at a predetermined set of points to accommodate rigid, somewhat rounded pegs (18) of varying shape and diameter. The peg attachments are secured to the bottom surface of the platform with a peg attachment insert screw (34) which rotates into a heilcoil (26) located in the internal recess. The platform allows specific facilitation or limitation of motion and biomechanical forces along the horizontal and vertical axes depending on the placement of human anatomy on the top surface (10) and peg size and placement on the bottom surface (12) of the platform.
Owner:FOLLETT MICHAEL R +1

CT system, CT system scanning positioning method and CT system calibration method

The invention relates to a CT system, a CT system scanning positioning method and a CT system calibration method. The CT system comprises a hospital bed, CT scanning and imaging equipment, a 3D video camera and a processing unit. The hospital bed is used for supporting a patient to be scanned on the hospital bed. The CT scanning and imaging equipment is used for conducting CT scanning and imaging on the patient to be scanned. The 3D video camera is used for shooting a 3D image of the patient to be scanned on the hospital bed. The processing unit is used for acquiring human anatomy structural information of the patient to be scanned according to the 3D image shot by the 3D video camera so as to determine the range to be scanned and for converting the range to be scanned of the 3D video camera under a space coordinate system to the range to be scanned of the CT scanning and imaging equipment under a space coordinate system. The CT scanning and imaging equipment conducts scanning and imaging on the patient to be scanned according to the converted range to be scanned of the CT scanning and imaging equipment under the space coordinate system. By means of the CT system, the CT system scanning positioning method and the CT system calibration method, the precision of the scanned range can be improved, scanning time is shortened, and radiation dosage is lowered.
Owner:GE MEDICAL SYST GLOBAL TECH CO LLC

Method for determining detection efficiency of internal exposure HPGe detector based on CT data

The invention relates to a method for determining the detection efficiency of an internal exposure HPGe detector based on CT data. Based on different energy gamma ray full-energy peak detection efficiency measuring data, Monte Carlo particle transport numerical values are adopted for computing, so that geometrical parameters of a detector sensitive area are adjusted, and the geometrical parameters of the detector sensitive area are obtained; the Monte Carlo particle transport numerical values are adopted for computing, so that the corresponding differential detection efficiency distribution of different energy gamma rays on the surfaces of the detector in different discrete areas and different discrete angle phase spaces is solved; based on CT medical image data of a human body to be detected, a voxel model of human anatomy structural features and a voxel model of an interesting organ or area are established, and the interesting organ or area serves as a source area; an exponential decay formula is used for solving the direct-through gamma ray share from a source area voxel to a surface element on the surface of the detector, and established differential detection efficiency distribution data are used for obtaining the detector full-energy peak detection efficiency specific to the source area through the multiple integral.
Owner:HEFEI INSTITUTES OF PHYSICAL SCIENCE - CHINESE ACAD OF SCI
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