Abstract: The flexible endoscope 20 has a flexible insertion portion 22 to be inserted in an observation zone 11 of a MRI apparatus 10. The insertion portion 22 has an inner tube 71 made of resin, triple helical tubes 72 covering the inner tube 71 and an outer tube 73 made of resin and covering the triple helical tubes 72. The triple helical tubes 72 include a first helical band 721 helically wound around an outer peripheral surface of the inner tube 71, a second helical band 722 helically wound around an outer periphery of the first helical band 721 in a direction opposite to a winding direction of the first helical band 721 and a third helical band 723 helically wound around an outer periphery of the second helical band 722 in a direction opposite to the winding direction of the second helical band 722. The first to third helical bands 721, 722, 723 are made of phosphor bronze or copper-silver alloy, which are materials having low magnetic susceptibility.

Abstract: Disclosed is a recording and reproducing apparatus comprising: an apparatus main body; and a remote controller to perform remote control of the apparatus main body, wherein the remote controller comprises: a key operating section to receive a key operation by a user; a sound information inputting section to input sound information; and a transmitting section to transmit sound data based on the sound information to the apparatus main body, and the apparatus main body comprises: a recording section to record input content data on a recording medium; a reproducing section to reproduce the content data; a receiving section to receive the sound data; a sound information recording section to record the sound data so as to be associated with a piece of the content data; and a sound information outputting section to reproduce the sound data to output the reproduced sound data.

Abstract: A power transmission mechanism includes a rotational drive member which rotates to drive a driven member, a drive switcher for switching between a transmission-ON state in which a driving force of a drive source is transmitted to the rotational drive member to rotate the rotational drive member and a transmission-OFF state in which the transmission of the driving force to the rotational drive member is canceled, and a rotation restrictor which allows the rotational drive member to rotate when the drive switcher is in the transmission-ON state and is engaged with the rotational drive member to restrict rotation of the rotational drive member when the drive switcher is in the transmission-OFF state.

Abstract: A power transmission mechanism includes a cam-incorporated gear which rotates in one rotational direction by a driving force transmitted from a drive source via a planet gear when engaged with the planet gear, wherein the cam-incorporated gear stops rotating when disengaged from the planet gear; a driven member which includes a follower which contacts at least one surface cam formed on the cam-incorporated gear, the driven member being driven in accordance with the rotation of the cam-incorporated gear in the one rotational direction, and exerting a surplus torque on the cam-incorporated gear in the one rotational direction thereof so as to increase the rotation of the cam-incorporated gear in the one rotational direction, the surplus torque being independent of a torque exerted on the cam-incorporated gear by the drive source; and a damping mechanism which continuously exerts a load torque on the cam-incorporated gear in a rotational direction opposite to the one rotational direction of the cam-incorporated

Abstract: An imaging apparatus is provided, including a mirror movable between a viewing position and a retracted position; a shutter which prevents the light that is passed through the imaging optical system from being incident on the image sensor and allows the light that is passed through the imaging optical system to be incident on the image sensor when open and shut, respectively; a reversible motor; a first operating mechanism which moves the mirror and carries out a shutter charge operation when engaged with the reversible motor and driven thereby; a second operating mechanism which carries out the shutter charge operation without moving the mirror when engaged with the reversible motor and driven thereby; and a driving force transmission switcher for transmitting driving forces of the reversible motor in first and second rotational directions thereof to the first and second operating mechanisms, respectively.

Abstract: A clip applier includes a body 21, an insertion tube 22 extending from the body 21 and inserted in a channel of an endoscope and a clamp mechanism 24 disposed at a distal end of the insertion tube 22. The clamp mechanism 24 has a support member 28 fixed at the distal end of the insertion tube 22 and a pair of clamp members 30 rotatably supported by the support member 28. The clamp members 30 are connected to a distal end of a wire 25 via a pair of links 35. The clamp members 30 respectively include gripping portions 32 protruding form the support member 28. A clip 50 is received in receiving grooves 32a of the gripping portions 32. When the wire 25 is pulled by operating an operation member disposed on the body 21, the clamp members 30 are rotated against an elastic force of a hinge portion 51 of the clip 50, thereby causing a pair of clip portions 53 of the clip 50 to be opened.

Abstract: A power transmission mechanism includes a cam-incorporated gear including a constant-radius cam-portion and a small-radius relief cam-portion connected via a non-constant-radius cam-portion; and first and second swingable members each including a follower which comes in contact with the constant-radius cam-portion and is positioned in an immediate vicinity of the relief cam-portion at respective first and second swing limits. The cam-incorporated gear includes two neutral positions in which one and the other of the swingable members is held at cam-axis separated and vicinity positions, respectively, wherein upon rotating the swingable members from one to the other of the neutral positions, the commencement and termination of rotation of the swingable member that moves from the cam-axis separated to vicinity positions respectively occurs at earlier and later timings. The non-constant-radius cam-portion makes a load torque greater than a surplus torque which act on the cam-incorporated gear when it rotates.

Abstract: A power transmission mechanism includes a rotational drive member which rotates to drive a driven member, a drive switcher for switching between a transmission-ON state in which a driving force of a drive source is transmitted to the rotational drive member to rotate the rotational drive member and a transmission-OFF state in which the transmission of the driving force to the rotational drive member is canceled, and a rotation restrictor which allows the rotational drive member to rotate when the drive switcher is in the transmission-ON state and is engaged with the rotational drive member to restrict rotation of the rotational drive member when the drive switcher is in the transmission-OFF state.

Abstract: A power transmission mechanism includes a cam-incorporated gear which rotates in one rotational direction by a driving force transmitted from a drive source via a planet gear when engaged with the planet gear, wherein the cam-incorporated gear stops rotating when disengaged from the planet gear; a driven member which includes a follower which contacts at least one surface cam formed on the cam-incorporated gear, the driven member being driven in accordance with the rotation of the cam-incorporated gear in the one rotational direction, and exerting a surplus torque on the cam-incorporated gear in the one rotational direction thereof so as to increase the rotation of the cam-incorporated gear in the one rotational direction, the surplus torque being independent of a torque exerted on the cam-incorporated gear by the drive source; and a damping mechanism which continuously exerts a load torque on the cam-incorporated gear in a rotational direction opposite to the one rotational direction of the cam-incorporated

Abstract: An imaging apparatus is provided, including a mirror movable between a viewing position and a retracted position; a shutter which prevents the light that is passed through the imaging optical system from being incident on the image sensor and allows the light that is passed through the imaging optical system to be incident on the image sensor when open and shut, respectively; a reversible motor; a first operating mechanism which moves the mirror and carries out a shutter charge operation when engaged with the reversible motor and driven thereby; a second operating mechanism which carries out the shutter charge operation without moving the mirror when engaged with the reversible motor and driven thereby; and a driving force transmission switcher for transmitting driving forces of the reversible motor in first and second rotational directions thereof to the first and second operating mechanisms, respectively.

Abstract: A power transmission mechanism includes a cam-incorporated gear including a constant-radius cam-portion and a small-radius relief cam-portion connected via a non-constant-radius cam-portion; and first and second swingable members each including a follower which comes in contact with the constant-radius cam-portion and is positioned in an immediate vicinity of the relief cam-portion at respective first and second swing limits. The cam-incorporated gear includes two neutral positions in which one and the other of the swingable members is held at cam-axis separated and vicinity positions, respectively, wherein upon rotating the swingable members from one to the other of the neutral positions, the commencement and termination of rotation of the swingable member that moves from the cam-axis separated to vicinity positions respectively occurs at earlier and later timings. The non-constant-radius cam-portion makes a load torque greater than a surplus torque which act on the cam-incorporated gear when it rotates.

Abstract: Means to Solve The flexible endoscope 20 has a flexible insertion portion 22 to be inserted in an observation zone 11 of a MRI apparatus 10. The insertion portion 22 has an inner tube 71 made of resin, triple helical tubes 72 covering the inner tube 71 and an outer tube 73 made of resin and covering the triple helical tubes 72. The triple helical tubes 72 include a first helical band 721 helically wound around an outer peripheral surface of the inner tube 71, a second helical band 722 helically wound around an outer periphery of the first helical band 721 in a direction opposite to a winding direction of the first helical band 721 and a third helical band 723 helically wound around an outer periphery of the second helical band 722 in a direction opposite to the winding direction of the second helical band 722. The first to third helical bands 721, 722, 723 are made of phosphor bronze or copper-silver alloy, which are materials having low magnetic susceptibility.

Abstract: A wire member 50 is received in a flexible part 22 of an endoscope 20 and adapted to remotely curvilinearly control a bendable part 27 at a distal end of the flexible insertion part 22. The wire member 50 includes a braid 51 braiding from a plurality of resin fibers and an adhesive agent 52 impregnated in the braid 51 and hardened. The impregnating and hardening of the adhesive agent 52 are carried out in a state where the braid 51 is applied with a tensile force having a predetermined magnitude.

Abstract: A clip applier includes a body 21, an insertion tube 22 extending from the body 21 and inserted in a channel of an endoscope and a clamp mechanism 24 disposed at a distal end of the insertion tube 22. The clamp mechanism 24 has a support member 28 fixed at the distal end of the insertion tube 22 and a pair of clamp members 30 rotatably supported by the support member 28. The clamp members 30 are connected to a distal end of a wire 25 via a pair of links 35. The clamp members 30 respectively include gripping portions 32 protruding form the support member 28. A clip 50 is received in receiving grooves 32a of the gripping portions 32. When the wire 25 is pulled by operating an operation member disposed on the body 21, the clamp members 30 are rotated against an elastic force of a hinge portion 51 of the clip 50, thereby causing a pair of clip portions 53 of the clip 50 to be opened.

Abstract: Disclosed is a recording and reproducing apparatus comprising: an apparatus main body; and a remote controller to perform remote control of the apparatus main body, wherein the remote controller comprises: a key operating section to receive a key operation by a user; a sound information inputting section to input sound information; and a transmitting section to transmit sound data based on the sound information to the apparatus main body, and the apparatus main body comprises: a recording section to record input content data on a recording medium; a reproducing section to reproduce the content data; a receiving section to receive the sound data; a sound information recording section to record the sound data so as to be associated with a piece of the content data; and a sound information outputting section to reproduce the sound data to output the reproduced sound data.

Abstract: A wire member 50 is received in a flexible part 22 of an endoscope 20 and adapted to remotely curvilinearly control a bendable part 27 at a distal end of the flexible insertion part 22. The wire member 50 includes a braid 51 braiding from a plurality of resin fibers and an adhesive agent 52 impregnated in the braid 51 and hardened. The impregnating and hardening of the adhesive agent 52 are carried out in a state where the braid 51 is applied with a tensile force having a predetermined magnitude.

Abstract: An observing system(S) for observing a vocal cord(B), as a vibrating object, of a person to be inspected(A) comprises an image-pickup section(1) for picking up an image of the vocal cord(B) at a constant cycle, an extracting section(21a) for extracting a basic frequency of a generated voice, a frequency dividing ratio setting section(26) for variably setting a frequency dividing ratio with respect to the extracted basic frequency, a frequency dividing section(21b) for dividing the basic frequency at the set frequency dividing ratio, a trigger output section(21c) for outputting a trigger signal at the divided frequency, and video image making sections(21d,22) capable of outputting only an image picked up by the image pickup section(1) immediately after the output of each trigger signal.

Abstract: A method of driving an SLR camera using a single motor includes driving the motor forward to perform a mirror release operation, driving the motor in reverse to switch a motor drive system including the motor to a mirror-shutter charge system and performing a mirror-shutter charge operation, driving the motor to continue rotating in reverse to switch the motor drive system a film wind system, driving the motor to continue rotating in reverse to perform a film wind operation, driving the motor forward for a predetermined period of time to switch the motor drive system from the film wind system to a film rewind system upon detecting that there are no more film frames available, and driving the motor in reverse to perform the film rewind operation.

Abstract: A camera body includes a body mount adopted to detachably attach an interchangeable lens thereto, a body index mark which indicates a position of proper alignment of the interchangeable lens with respect to the body mount in order to attach the interchangeable lens to the camera body, and an illuminating device which illuminates the body index mark.

Abstract: A method for diagnosis of components inside a turbine generator includes collecting and measuring organic substances present in a gas inside the turbine generator to obtain data (first data). Before the collecting, organic substances generated from each component inside the turbine generator due to heat, discharge, corrosion, or friction, are measured to compile data (second data). The first data is compared to the second data to determine whether the first data includes the same data as in the second data to detect deterioration of the components inside the turbine generator.