Abstract: According to one embodiment, a magnetic memory device includes an electrode, and a magnetoresistance effect element provided on the electrode. The electrode includes a first electrode portion and a second electrode portion provided between the magnetoresistance effect element and the first electrode portion and containing a metal element selected from molybdenum (Mo) and ruthenium (Ru).

Abstract: Provided is a temperature responsive adsorbent prepared by immobilizing a copolymer containing at least N-isopropylacrylamide to a base material surface. The copolymer has at least a strong cation exchange group. In addition, the copolymer contains the strong cation exchange group in an amount of 0.01 to 5 mol % relative to N-isopropylacrylamide in terms of monomer.

Abstract: Provided is a temperature responsive adsorbent prepared by immobilizing a copolymer containing at least N-isopropylacrylamide to a base material surface. The copolymer has at least a strong cation exchange group. In addition, the copolymer contains the strong cation exchange group in an amount of 0.01 to 5 mol % relative to N-isopropylacrylamide in terms of monomer.

Abstract: A temperature responsive monolithic porous material is obtained that comprises a polymer having a hydration ability that changes in a temperature range of 0 to 80° C. and being immobilized to a surface of the porous material at a high density by binding an atom transfer radical polymerization initiator to a surface of the porous material, and inducing a growth reaction of a polymer, having a hydration ability that changes in a temperature range of 0 to 80° C., from the initiator using an atom transfer radical process under a presence of a catalyst.

Abstract: Provided is a temperature responsive adsorbent prepared by immobilizing a copolymer containing at least N-isopropylacrylamide to a base material surface. The copolymer has at least a strong cation exchange group. In addition, the copolymer contains the strong cation exchange group in an amount of 0.01 to 5 mol % relative to N-isopropylacrylamide in terms of monomer.

Abstract: A temperature responsive monolithic porous material is obtained that comprises a polymer having a hydration ability that changes in a temperature range of 0 to 80° C. and being immobilized to a surface of the porous material at a high density by binding an atom transfer radical polymerization initiator to a surface of the porous material, and inducing a growth reaction of a polymer, having a hydration ability that changes in a temperature range of 0 to 80° C., from the initiator using an atom transfer radical process under a presence of a catalyst.

Abstract: Provided is a temperature responsive adsorbent prepared by immobilizing a copolymer containing at least N-isopropylacrylamide to a base material surface. The copolymer has at least a strong cation exchange group. In addition, the copolymer contains the strong cation exchange group in an amount of 0.01 to 5 mol % relative to N-isopropylacrylamide in terms of monomer.

Abstract: A drive control device of a fuel pump for sucking fuel in a fuel tank supplying the fuel to an internal combustion engine, and using a motor with a brush as a drive source thereof. The drive control device includes a starting current reduction control device that starts the fuel pump in a state where a drive current of the fuel pump is reduced.

Abstract: A drive control device of a fuel pump for sucking fuel in a fuel tank supplying the fuel to an internal combustion engine, and using a motor with a brush as a drive source thereof. The drive control device includes a starting current reduction control device that starts the fuel pump in a state where a drive current of the fuel pump is reduced.

Abstract: A receiver (2) includes tuner units (1) and (3), and a circuit board (21). The tuner unit (1) includes a connector (11), a tuner board (12), and a housing (13) for accommodating them. The tuner board (12) is positioned within the limit of a height dimension L perpendicular to the direction of connection (depicted by an arrow P) of the connector (11). In addition, a recess (141B) is formed in the housing (13), in which the circuit board (21) disposed on the recess (141B) is also positioned within the limit of the height dimension L perpendicular to the direction of connection (depicted by an arrow P) of the connector (11).

Abstract: A socket (333) of a connector (33) of an adapter (2) has a projecting portion (loose-fit portion) (333B) inserted into a hole (353A) of a base member (35) to support the connector (33) in loosely fitted manner. A diameter (L3) of the projecting portion (333B) is smaller than a diameter L4 of a hole (353A) of the base member (35). A length (L5) along an insertion direction into the hole (353A) is greater than a thickness of the connector attachment side (353). The connector (32) of the adapter (2) has an insertion portion (323) inserted into a cutout portion (353B) of the base member (35). A length (L8) of an extending direction of an insertion body (323A) of the insertion portion (323) is greater than the thickness (L9) of the connector attachment side, while its width (L6) is smaller than a width (L7) of the cutout portion (353B).

Abstract: A receiver (2) includes tuner units (1) and (3), and a circuit board (21). The tuner unit (1) includes a connector (11), a tuner board (12), and a housing (13) for accommodating them. The tuner board (12) is positioned within the limit of a height dimension L perpendicular to the direction of connection (depicted by an arrow P) of the connector (11). In addition, a recess (141B) is formed in the housing (13), in which the circuit board (21) disposed on the recess (141B) is also positioned within the limit of the height dimension L perpendicular to the direction of connection (depicted by an arrow P) of the connector (11).

Abstract: A socket (333) of a connector (33) of an adapter (2) has a projecting portion (loose-fit portion) (333B) inserted into a hole (353A) of a base member (35) to support the connector (33) in loosely fitted manner. A diameter (L3) of the projecting portion (333B) is smaller than a diameter L4 of a hole (353A) of the base member (35). A length (L5) along an insertion direction into the hole (353A) is greater than a thickness of the connector attachment side (353). The connector (32) of the adapter (2) has an insertion portion (323) inserted into a cutout portion (353B) of the base member (35). A length (L8) of an extending direction of an insertion body (323A) of the insertion portion (323) is greater than the thickness (L9) of the connector attachment side, while its width (L6) is smaller than a width (L7) of the cutout portion (353B).

Abstract: The present invention prevents a decrease in efficiency due to energy circulation in a power transmission path in a power output apparatus having an engine and a motor as power source. In the power output apparatus, a planetary gear 120 has a sun gear shaft linked with a generator MG1, a ring gear shaft linked with a motor MG2, and a planetary carrier linked with an output shaft of an engine 150. The power output apparatus carries out a control procedure to avoid energy circulation, which goes through the planetary gear 120, the motor MG2, and generator MG1, and the planetary gear 120, and thereby prevent a decrease in efficiency. The energy circulation occurs when the motor MG2 converts the power output from the engine 150 to electric power and the generator MG1 carries out power operation with the regenerated electric power.

Abstract: A memory stores and holds both the number of crankshaft angle pulse signals occurring after detecting a reference portion when an engine stops and data relating to whether the reference portion which is supposed to be next detected upon re-start of the engine is a reference position of the camshaft. When the engine is re-started, it is determined whether a reverse rotation of the crankshaft across the reference position happened by comparing a predetermined value with the total obtained by adding the number of pulse signals stored in the memory and the number of pulse signals occurring until the reference portion is first detected again. When such reverse rotation happened, the reference position of the camshaft is shifted by 360.degree. CA. Therefore, regardless of whether such reverse rotation across the reference position happened or not, the engine timing cycle is again precisely synchronized.

Abstract: An automotive air conditioner controller for controlling the operation of an automotive air conditioner employing a variable displacement compressor capable of gradually or continuously varying its displacement. While the engine of the automobile is idling, the automotive air conditioner controller adjusts the displacement of the compressor to or near to the maximum, varies desired idling speed of the engine according to required cooling ability, and adjusts the actual idling speed of the engine to the desired idling speed. Thus, the engine operates at an improved fuel consumption rate without reducing the cooling ability of the automotive air conditioner.