Abstract: A system is provided for retractably deploying traction of a wheel. The system includes a set of grippers, each gripper having a cleat and a radially disposed strut. The system further includes a set of first poles, each first pole coupled to one of the struts, the first pole configured to support motion of its corresponding strut between a parked position and an engaged position, wherein, in the engaged position, the corresponding cleat is axially disposed and engaged against the tread of the wheel and, in the parked position, the corresponding cleat is disengaged from the tread of the wheel. The system includes a first faceplate configured to rotate with the wheel. The system further includes a cleat deployment mechanism having a second faceplate rotatably coupled to the first faceplate, and a set of second poles, each second pole coupled to one of the struts and to the second faceplate.

Abstract: A system is provided for retractably deploying traction of a wheel. The system includes a set of grippers, each gripper having a cleat and a radially disposed strut. The system further includes a set of first poles, each first pole coupled to one of the struts, the first pole configured to support motion of its corresponding strut between a parked position and an engaged position, wherein, in the engaged position, the corresponding cleat is axially disposed and engaged against the tread of the wheel and, in the parked position, the corresponding cleat is disengaged from the tread of the wheel. The system includes a first faceplate configured to rotate with the wheel. The system further includes a cleat deployment mechanism having a second faceplate rotatably coupled to the first faceplate, and a set of second poles, each second pole coupled to one of the struts and to the second faceplate.

Abstract: A system is provided for retractably deploying enhanced traction of a wheel having a tread and an axis of rotation. The system includes a set of grippers, each gripper having a cleat and a radially disposed strut. The system further includes a set of strut mounts, each strut mount coupled to one of the struts, the strut mount configured to support motion of its corresponding strut between a parked position and an engaged position, wherein, in the engaged position of such strut, the corresponding cleat is axially disposed and engaged against the tread of the wheel and, in the parked position of such strut, the corresponding cleat is disengaged from the tread of the wheel. The system further includes a cleat deployment mechanism, coupled to the struts, configured on actuation to cause automatic deployment of the struts into the engaged position.

Abstract: Methods and systems for detecting the presence of concealed objects that can be utilized at locations where conventional methods cannot be utilized are disclosed. One embodiment of the method of these teachings for detecting the presence of concealed objects uses thermal radiation of a body as a source of radiation. Other embodiments include portable and handheld systems, devices, methods, and apparatus to determine the presence of a concealed object.

Abstract: Methods and systems for detecting the presence of concealed objects. One embodiment of the method of these teachings for detecting the presence of concealed objects is passive, does not require any external radiation source, uses thermal radiation of a body as a source of radiation. Other embodiments include unique systems, devices, methods, and apparatus to determine the presence of a concealed object.

Abstract: Methods and systems for detecting the presence of concealed objects that can be utilized at locations where conventional methods cannot be utilized are disclosed. One embodiment of the method of these teachings for detecting the presence of concealed objects uses thermal radiation of a body as a source of radiation. Other embodiments include portable and handheld systems, devices, methods, and apparatus to determine the presence of a concealed object.

Abstract: Methods and systems for detecting the presence of concealed objects. One embodiment of the method of these teachings for detecting the presence of concealed objects is passive, does not require any external radiation source, uses thermal radiation of a body as a source of radiation. Other embodiments include unique systems, devices, methods, and apparatus to determine the presence of a concealed object.

Abstract: A prosthesis for male sexual aid comprises a semi-rigid sleeve of thermoplastic material and two straps of elastomeric material. The sleeve has a cutout along its whole length and shaped outside in three portions: a head, a shaft, and a base. A base portion is slanted about the cutout toward the shaft portion. The first strap is secured by both ends to the base portion of the sleeve in a location that is opposite to the cutout. The second strap is an O-ring and secured to the shaft portion of the sleeve embracing the last. In usage, a penis is inserted into the sleeve, the first strap is pulled under the scrotum, the second strap holds the penis inside the sleeve. The first strap being under a fulcrum of rotation of the prosthesis will pull it into a “flaccid” position doing it invisible to an observer when a user is dressed. A moment before a sexual intercourse the user give lift to the prosthesis by his hand.