Abstract: An optical layered film comprising an A layer formed of a thermoplastic resin A and a B layer formed of a thermoplastic resin B provided on at least one surface of the A layer, wherein a flexural modulus of a film of the thermoplastic resin A having a thickness of 4 mm is 1,900 MPa or more and 3,500 MPa or less, a flexural modulus of a film of the thermoplastic resin B having a thickness of 4 mm is 100 MPa or more and 900 MPa or less, and a tensile break elongation of a film of the thermoplastic resin A having a thickness of 1.5 mm is 100% or more.

Abstract: A multilayer film for an organic electroluminescent display device, including at least one substrate layer containing a crystallizable polymer, a barrier layer, and an electroconductive layer, wherein at least one of the barrier layer and the electroconductive layer is in direct contact with the substrate layer.

Abstract: A multilayer film for an organic electroluminescent display device, the multilayer film including: a phase difference film; and a barrier layer directly disposed on a surface of the phase difference film, wherein the phase difference film includes one or more layers of a resin A as a layer in direct contact with the barrier layer, the resin A includes a crystallizable polymer A having a melting point of 250° C. or higher, and the layer of the resin A has a specific value of in-plane retardation Re measured with light having a wavelength of 590 nm at 23° C., and an absolute value of a photoelastic coefficient of 2.0×10?11 Pa?1 or less; a production method therefor; and use thereof.

Abstract: A resin film including a crystallizable polymer, wherein an in-plane retardation Re of the resin film is less than 5 nm, a thickness-direction retardation Rth of the resin film is less than 25 nm, and a haze HZ of the resin film is less than 3.0%.

Abstract: A multilayer film for an organic electroluminescent display device, the multilayer film including: a phase difference film; and a barrier layer directly disposed on a surface of the phase difference film, wherein the phase difference film includes one or more layers of a resin A as a layer in direct contact with the barrier layer, the resin A includes a crystallizable polymer A having a melting point of 250° C. or higher, and the layer of the resin A has a specific value of in-plane retardation Re measured with light having a wavelength of 590 nm at 23° C., and an absolute value of a photoelastic coefficient of 2.0×10?11 Pa?1 or less; a production method therefor; and use thereof.

Abstract: A method for manufacturing a stretched film for producing a long-length stretched film by stretching a long-length resin film while being conveyed so as to pass through an oven in a state in which the end portions of the resin film are held by first and second grippers, wherein the oven has a preliminary heating zone, a stretching zone, a thermal fixing zone, and a reheating zone in this order from an upstream side; the stretching zone includes a specific zone having a temperature gradient capable of setting a temperature of an end portion on a second gripper side is higher than a temperature of an end portion on a first gripper side by 5° C. or higher and 15° C. or lower; and the reheating zone has a temperature capable of heating the resin film to a temperature of Tg+5° C. or higher and Tg+20° C. or lower.

Abstract: A method for manufacturing a stretched film for producing a long-length stretched film by stretching a long-length resin film while being conveyed so as to pass through an oven in a state in which the end portions of the resin film are held by first and second grippers, wherein the oven has a preliminary heating zone, a stretching zone, a thermal fixing zone, and a reheating zone in this order from an upstream side; the stretching zone includes a specific zone having a temperature gradient capable of setting a temperature of an end portion on a second gripper side is higher than a temperature of an end portion on a first gripper side by 5° C. or higher and 15° C. or lower; and the reheating zone has a temperature capable of heating the resin film to a temperature of Tg+5° C. or higher and Tg+20° C. or lower.

Abstract: A biodata interfacing device includes a service console, an attachment storage compartment defined in the service console for accommodating a variety of sensors used for collecting biodata, a lid mounted on the service console for opening and closing a top opening of the attachment storage compartment, and a display unit formed on an upper surface of the lid.

Abstract: A portable heat transfer apparatus including a combustion device, a thermoelectric convertor for receiving the heat of the combustion device at its high temperature side, transferring the heat from its low temperature side to a heat exchanger, and generating electric power depending on the temperature difference between the high temperature side and low temperature side. A heat medium forced circulating device is driven by the power generated from the thermoelectric converter for transferring heat medium to the heat exchanger. Also provided is a heat releasing device for circulating and releasing the heat medium exchanged of heat in the heat exchanger. Therefore, the heat exchanger can be heated through the thermoelectric converter while heating the thermoelectric converter with the combustion device, and by heating with the heat exchanger. The temperature difference between the high temperature side and low temperature side of the thermoelectric converter can be obtained rationally and sufficiently.

Abstract: A biodata interfacing device includes a service console (1), an attachment storage compartment (3) defined in the service console (1) for accommodating a variety of sensors (31, 32, 33) used for collecting biodata, a lid (11) mounted on the service console (1) for opening and closing a top opening of the attachment storage compartment (3), and a display unit (12) formed on an upper surface of the lid (11).