Abstract: A freeze-dried product continuously manufactured by being dried while smoothly moving in a state of receiving a mechanical force in a freeze-drying apparatus 1. The freeze-drying apparatus 1 includes a freezing unit 2 for producing a frozen substance by spraying a raw material solution; and a drying unit 3 for drying the frozen substance. The drying unit 3 has a tubular shape and includes a tubular member 31 kept in a vacuum state, and a spiral wall or groove portion is formed on an inner wall of the tubular member 31 continuously in a longitudinal direction of the tubular member 31. A heat is transferred to the inner wall of the tubular member 31 and the spiral wall or groove portion. The tubular member 31 is configured to be rotated to transfer the freeze-dried product in the longitudinal direction of the tubular member 31 and sublimate or dry the freeze-dried product.

Abstract: A freeze-dried product continuously manufactured by being dried while smoothly moving in a state of receiving a mechanical force in a freeze-drying apparatus 1. The freeze-drying apparatus 1 includes a freezing unit 2 for producing a frozen substance by spraying a raw material solution; and a drying unit 3 for drying the frozen substance. The drying unit 3 has a tubular shape and includes a tubular member 31 kept in a vacuum state, and a spiral wall or groove portion is formed on an inner wall of the tubular member 31 continuously in a longitudinal direction of the tubular member 31. A heat is transferred to the inner wall of the tubular member 31 and the spiral wall or groove portion. The tubular member 31 is configured to be rotated to transfer the freeze-dried product in the longitudinal direction of the tubular member 31 and sublimate or dry the freeze-dried product.

Abstract: Provided are a vacuum freeze-drying apparatus and a method capable of continuously performing vacuum freeze-drying in a short time.

Abstract: Provided are a vacuum freeze-drying apparatus and a method capable of continuously performing vacuum freeze-drying in a short time.

Abstract: Provided is a vacuum freeze-drying apparatus 1, having a drying device 3 provided with an inlet portion and an outlet portion and comprising a tubular member 31 formed of a tubular shape, a temperature adjusting means 30a to 30j provided in a plurality of regions 40a to 40j in a direction from the inlet portion to the outlet portion in a peripheral portion of the tubular member for adjusting a temperature of the plurality of regions in an outer surface of the tubular member, a temperature control unit 8 for independently controlling the temperature adjusting means, and a rotating portion 7 for rotating the tubular member, wherein the tubular member has a spiral transfer means 31a for transferring the frozen substance entering from the inlet portion sequentially to locations corresponding to the plurality of regions in the tubular member to continuously sublimate and dry the frozen substance.

Abstract: Provided is a vacuum freeze-drying apparatus 1, having a drying device 3 provided with an inlet portion and an outlet portion and comprising a tubular member 31 formed of a tubular shape, a temperature adjusting means 30a to 30j provided in a plurality of regions 40a to 40j in a direction from the inlet portion to the outlet portion in a peripheral portion of the tubular member for adjusting a temperature of the plurality of regions in an outer surface of the tubular member, a temperature control unit 8 for independently controlling the temperature adjusting means, and a rotating portion 7 for rotating the tubular member, wherein the tubular member has a spiral transfer means 31a for transferring the frozen substance entering from the inlet portion sequentially to locations corresponding to the plurality of regions in the tubular member to continuously sublimate and dry the frozen substance.

Abstract: An undercover is provided which can have an electromagnetic shield effect in a vehicle. A battery unit is provided at a lower portion of a car body. The undercover is provided under the battery unit. The undercover functions to prevent an obstruction or a stone leaping during driving from directly hitting on a battery case. The undercover includes an undercover body and a cloth electromagnetic shield member formed of a conductive fabric. The conductive fabric is soft and flexible, and is molded along with the undercover body, with resin of the undercover body heated, so that they unite with each other. The resin is melted and stuck to the conductive fabric to obtain an anchor effect, as a result of which the conductive fabric is fixed to the resin of the undercover body.

Abstract: There is provided a pipette device capable of adjusting a collection amount in a short time. A pipette device 1 adjusting a volume of a cylinder portion “a” by the axial-direction movement of a plunger 3 caused by the rotation of a push rod 5 includes a speed increasing mechanism 35 provided between a pipette main body 2 and the push rod 5 and increasing a speed of input rotation to transmit the input rotation with the increased speed to the push rod 5.

Abstract: There is provided a pipette device adaptable to a decrease in diameter of a pipette main body and costing lower. A pipette device 1 in which a plunger 3 is inserted in a cylinder portion “a” of a pipette main body 2 to be movable in an axial direction and the plunger 3 is moved to change a cylinder volume includes seal ring portions 15c, 15d formed on and integrally with one of an inner peripheral surface of the cylinder portion “a” and an outer peripheral surface of the plunger 3 to seal a gap between the cylinder portion “a” and the plunger 3.

Abstract: There is provided a pipette device capable of adjusting a collection amount in a short time. A pipette device 1 adjusting a volume of a cylinder portion “a” by the axial-direction movement of a plunger 3 caused by the rotation of a push rod 5 includes a speed increasing mechanism 35 provided between a pipette main body 2 and the push rod 5 and increasing a speed of input rotation to transmit the input rotation with the increased speed to the push rod 5.

Abstract: A hood apparatus for a vehicle has a hood member which closes an opening of an engine room, a lifting mechanism, and a driving portion. The lifting mechanism has a link mechanism and a gas spring. The link mechanism is structured so as to be able to raise up and bring down the hood member by including a first link member and a second link member shorter than the first link member which bridge the hood member and a top end portion of a strut house panel of the engine room. The gas spring urges the hood member upward. The driving portion uncouples the second link member from the hood member when an impact force greater than or equal to a predetermined value is inputted from an front end portion of a automobile.

Abstract: A hood apparatus for a vehicle has a hood member which closes an opening of an engine room, a lifting mechanism, and a driving portion. The lifting mechanism has a link mechanism and a gas spring. The link mechanism is structured so as to be able to raise up and bring down the hood member by including a first link member and a second link member shorter than the first link member which bridge the hood member and a top end portion of a strut house panel of the engine room. The gas spring urges the hood member upward. The driving portion uncouples the second link member from the hood member when an impact force greater than or equal to a predetermined value is inputted from an front end portion of a automobile.

Abstract: A semiconductor device is disclosed which employs transfer molding to simplify a resin sealing step, reduces fabrication costs without using expensive elements, and has an improved efficiency of dissipation of heat generated by a power device and an improved product rating. The power device (101) and a control device (102) are placed in predetermined positions on horizontally positioned lead frames (103a, 103b), respectively. An insulating layer (105) of epoxy resin or the like is formed on a major surface of a heat sink (104), and a circuit pattern layer (106) formed on a major surface of the insulating layer (105) is shaped to conform to a predetermined circuit pattern. The lead frames (103a, 103b) are disposed on the circuit pattern layer (106).