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153 results about "Shoulder Blades" patented technology

The word "scapula" (with the accent on the first syllable) is Latin. The Romans always employed the plural "scapulae", the shoulder blades. Because the shoulder blade resembles the blade of a trowel (a small shovel), the word "scapula" is thought to have come from the Greek "skaptein" meaning "to dig.".

Plug-in type balance valve

The invention relates to a plug-in type balance valve which comprises a valve body, a one-way valve core and a balance valve core, wherein a first oil opening, a second oil opening and a third oil opening are arranged on the valve body; the one-way valve core is arranged at the second oil opening and pushed by a first spring to maintain the trend of axial upward shift; the balance valve core is installed in the valve body and can be matched with a valve opening of the one-way valve core, and a second spring is arranged in a spring cavity of the valve body; the upper part in the balance valve core is provided with an axial passage and a first damping hole; the middle position of the balance valve core is provided with an axial convex shoulder; an annular notch is arranged on the periphery surface of the axial convex shoulder; the inner wall of the valve body is provided with an annular inner shoulder blade; an oil inlet cavity is formed among the annular notch, the inner wall of the valve body and the annular inner shoulder blade; and the third oil opening is communicated with the oil inlet cavity by a second damping hole on the side wall of the valve wall. The balance valve core and the one-way valve core are in an integral structure, and the structure is simple; the balance valve core and the one-way valve core are relatively independent on the relative position relationship, the assembly is convenient, and the requirements on heat treatment and materials of the balance valve core are lowered.
Owner:NINGBO HANSHANG HYDRAULIC

T-back breast support system garment

The front weight support system/garment/bra supports front weight substantially on a wearer's upper back, above the shoulder blades and below the cervical vertebrae of the neck. Weight is supported underneath by the front enclosure 3a which is extended to the wearer's shoulder-tops by opposite side front straps 3a and 11a , which secure to opposite side edges of the yoke 2a. The yoke restrains the front weight rearwardly and upwardly against the wearer's upper back. The downward end of the yoke is leveraged down by spine strap 7a, vertically adjustably secured to the rear of circumferential body band 9a by single adjuster 10a. The enclosure is secured to the front of the body band to keep the enclosure from moving forward off the weight. The yoke is positioned off the back of the wearer's neck by its shape, rigidity, and/or with an attached spine strap. Laterally rigid rod 88a in yoke can hold the front straps laterally apart and off the sides of the wearer's neck. Using a rear band closure (5a and 55a ) and a bottom-side spine strap split, (4a and 44a) the body band's circumference can be varied; and, when open, can extend to easily slip over the extra width of the shoulders, while still keeping both sides of the closure proximal for easy closing. This arrangement needs only one spine strap length adjuster. Front weight can be breasts, a child, a wearer's belly, or merchandise.
Owner:RITTMANN JEAN V

Exoskeleton-type shoulder girdle and upper limb synergistic rehabilitation robot

The invention relates to an exoskeleton-type shoulder girdle and upper limb synergistic rehabilitation robot which comprises wheels, an electric appliance cabinet, a displayer, a displayer bracket, a lifting column and an outward extending beam and further comprises an inward and outward rotating mechanism for shoulders, an outward-extending inward-contracting mechanism for the shoulders, a forward-bending rearward-extending mechanism for the shoulders, a length adjusting mechanism for upper arms, an inward and outward rotating mechanism for the upper arms, a bending and stretching mechanism for elbows, an inward and outward rotating mechanism for front arms, a length adjusting mechanism for the front arms, a bending and stretching mechanism for wrists, a grabbing mechanism for hands and a movement-assisting shoulder blade mechanism. The robot implements active or passive rehabilitation aiming at shoulder girdle muscular paralysis and upper limb paralysis and is supportive of conversion between left and right arms. The invention further aims to solve an important problem, namely a problem of discomfort of a patient due to limited movement range caused after conversion between left and right mechanical arms. To this end, a mechanical arm structure is designed to be in complete left-right symmetry along a central axis.
Owner:QINGDAO CENTURY JIECHUANG MEDI TECH CO LTD +1

Dynamic modeling method for torsional convex shoulder blade under elastic bearing based on variable section beam

The invention relates to a dynamic modeling method for a torsional convex shoulder blade under elastic bearing based on a variable section beam. The method is a dynamic modeling method for a section variable torsional convex shoulder blade having a mounting angle with the consideration to a rotation effect of the blade and an influence of the elastic bearing. According to the dynamic modeling method, the cost expense required by a blade dynamic experiment is saved; a geometrical structure of the blade is closer to a real blade, so by only modifying a structural dimension and material parameters of the blade, dynamic models of different blade systems can be obtained, and thus the operation is simple and convenient; dynamic characteristics of the dynamic modeling method can more reflect a real working state of the blade; a bearing manner of the dynamic modeling method is closer to a real assembly state of the blade; compared with that the dynamic characteristics of the blade are analyzedby virtue of traditional commercial finite element software, the dynamic modeling method provided by the invention has higher computational efficiency; and meanwhile, a rub-impact response analysis of a blade system can further be performed, thereby providing a design optimization for a system structure containing the blade.
Owner:NORTHEASTERN UNIV

Dummy for simulation trunk load testing

ActiveCN104299501AReflect the characteristics of changes in biomechanical parametersEducational modelsClavicleLoad testing
The invention relates to a dummy for simulation trunk load testing. The dummy is characterized by comprising simulation skeletons and simulation soft tissues; the simulation skeletons include an axial skeleton, two symmetrically-arranged upper limbs and a lower limb; the axial skeleton comprises a skull, a spinal column, ribs, sternums and neck, shoulder and chest connecting pieces; the spinal column comprises a spinal column neck segment, a spinal column chest segment, a spinal column waist segment and a spinal column sacral segment; the ribs include two symmetrically-arranged first ribs, two symmetrically-arranged second ribs, two symmetrically-arranged third ribs, two symmetrically-arranged fourth ribs, two symmetrically-arranged fifth ribs, two symmetrically-arranged sixth ribs and two symmetrically-arranged seventh ribs; each upper limb comprises an upper limb girdle, humerus, radioulna, carpometacarpus, phalanxes, an adduction and abduction shaft, an elbow shaft and a wrist shaft; each upper limb girdle comprises a clavicle, a shoulder blade and a spina scapulae; each phalanx comprises a first phalanx body, a second phalanx body, a third phalanx body, a fourth phalanx body and a fifth phalanx body; the lower limb comprises a sacrum, two symmetrically-arranged hip bones, two closed holes, two thighbones and two installation fixing pieces; the simulation soft tissues comprise a head, a neck, a trunk, upper segments of thighs, the left upper limb and the right upper limb, and the head, the neck, the trunk and the upper segments of the thighs are wholly poured, curved and molded through silicone rubber. The dummy can be widely applied to various static or dynamic load testing processes.
Owner:THE QUARTERMASTER EQUIPMENT RESEARCH INSTITUTE OF THE GENERAL LOGISITIC DEPARTME
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