36results about How to "Subject to damage" patented technology

A shelter for a motor vehicle or other movable object is moved from a fully retracted position to a fully deployed position by a combination of linear and pivotal movement. The shelter includes a frame assembly including parallel rails with pole holding subassemblies mounted on and movable along the rails. Arched poles with a collapsible canopy covering the poles are mounted on the pole holders, and linear movement of one pole holder on each rail will pull or push the poles into position because the poles are connected by the canopy. Poles on parallel rails will be moved simultaneously. Front and rear pole holders are pivoted to enclose both the front and rear of the shelter, and the entire assembly can be retracted to a generally horizontal storage position by movement of swing arms from a position aligned with the rails to a position in which the swing arms extend upright relative to the rails.

An ultrasonic sensor consists of an ultrasonic transducer and a casing. The transducer includes a metal-made housing having an inner space; a vibrating planar member formed in the housing, wherein an outward surface of the vibrating planar member constitutes an outward surface of the housing and an inward surface of the vibrating planar member faces the inner space; and a driving element attached on an inward surface of the vibrating planar member for vibrating the vibrating planar member. This ultrasonic transducer is assembled within the casing and attached to a vehicle via the casing with the outward surface of the vibrating planar member exposed outwardly. Further, a resin film is attached using an adhesive member applied on a rear surface of the film to cover all the outward surface of the vibrating planner member.

A differential signal cable includes a pair of signal line conductors for transmitting differential signals, an insulation collectively covering the pair of signal line conductors, a shielding tape wrapped around the insulation, and an insulating tape wound around the shielding tape. A gap is formed between an outer peripheral surface of the insulation and an inner surface of the shielding tape such that the insulation is movable relative to the shielding tape.

An extreme ultraviolet radiation generator is disclosed in which Xenon gas is continuously ejected from a high pressure nozzle into a low pressure chamber to generate Xenon atom clusters which are irradiated with a high repetition rate pulsed laser to form a plasma and yield quasi-continuous EUV generation. The nozzle has a beveled outer rim to enable the focus point of the laser light to be brought close to the nozzle. The nozzle is cooled to a temperature at which background Xenon gas condenses onto the nozzle forming a protective layer. A gas compressor serves to recirculate the Xenon gas and batch purification triggered by a mass spectrometer monitoring gas purity may be periodically applied.

A heat exchanger having excellent heat exchanging performance is obtainable by a simple production technique and at a low cost. This is achieved by providing a fin member and by increasing heat conductivity between the fin member and a meandering pipe body. Further, the heat exchanger is made compact for high degrees of layout freedom, enabling the heat exchanger to be installed in a tight space. Engagement grooves (8) are provided in both end surfaces (6, 7), which are opposite to each other, of a fin member (5) in which fins (4) are parallel arranged. Straight pipe sections (2) are parallelly arranged, with gaps (16)in between, in the engagement grooves (8) of the fin member (5). The straight pipe sections (2)a are connected at bent sections (3). A pair of meandering sections (11, 12) is arranged opposite to each other with an insertion gap (17) of the fin member (5) in between. On (11) of the meandering sections and the other meandering section (12) are connected by a connection pipe (13) to form a meandering pipe main body (1). The straight pipe sections (2) of the one meandering section (11) are arranged in the engagement grooves (8) in the one end surface (6) of the fin member (5) inserted and arranged in the insertion gap (17) between the one meandering section (11) and the other meandering section (12) of the meandering pipe body (1), and the straight pipe sections (2) of the other meandering section (12) are arranged and fixed in the engagement grooves (8) in the other end surface (7).

An FPC connector includes a first insulating layer, a first circuit layer, a second insulating layer, a third insulating layer, and a second circuit layer. The first circuit layer is arranged between the first insulating layer and the second insulating layer. The first circuit layer includes a number of conductive strips. The third insulating layer is arranged between the first insulating layer and the first circuit layer. The second circuit layer includes a number of conductive strips provided on an upper side of the third insulating layer. Ends of the conductive strips of the second circuit layer pass through the third insulating layer and are correspondingly connected to the conductive strips of the first circuit layer. The first circuit layer and the second insulating layer each has a forepart extending beyond a front end of each of the first insulating layer, the third insulating layer, and the second circuit layer.

Provided is a sliding member for a thrust bearing. The sliding member includes a back-metal layer and a sliding layer, and has a partially annular shape. The sliding layer includes a synthetic resin and has a sliding surface. In a center line region of the sliding layer, the sliding layer has a linear expansion coefficient KS in a direction parallel to a circumferential direction of the sliding member, a linear expansion coefficient KJ in a direction parallel to a radial direction of the sliding member, and a linear expansion coefficient KT in a direction perpendicular to the sliding surface, and the linear expansion coefficients KS, KJ, and KT satisfy the following relations (1) and (2): Relation (1): 1.1≤KS / KJ≤2; and Relation (2): 1.3≤KT / {(KS+KJ) / 2}≤2.5.