Abstract: A coolant pumping system for a mobile electronic system includes a coolant reservoir containing a coolant, a heat exchanger member fluidly connected to the coolant reservoir, and a mass moveably mounted to the mobile electronic system. The mass is moved along at least one axis in response to at least one of accelerations and orientation changes of the mobile electronic system. The coolant system further includes a force transfer member operatively connected between the mass and the coolant reservoir. The force transfer member urges the coolant from the coolant reservoir through the heat exchanger member in response to movements of the mass. A gear member is operatively connected between the mass and the force transfer member.

Abstract: A coolant pumping system for a mobile electronic system includes a coolant reservoir containing a coolant, a heat exchanger member fluidly connected to the coolant reservoir, and a mass moveably mounted to the mobile electronic system. The mass is moved along at least one axis in response to at least one of accelerations and orientation changes of the mobile electronic system. The coolant system further includes a force transfer member operatively connected between the mass and the coolant reservoir. The force transfer member urges the coolant from the coolant reservoir through the heat exchanger member in response to movements of the mass.

Abstract: The invention proposes an electrical switch (20) with multiple switching ways comprising a bottom support (22) in the bottom (32) of which are arranged fixed contacts (30a, 30b, 30c, 30d), a top member (26) that is mounted to be movable relative to the bottom support (22) from a central rest position to four main actuation positions distributed angularly at 90°, and a contact plate (28) that comprises four contact blades (34) each of which is capable of coming into contact with a fixed contact (30b), characterized in that the actuation member (26) is mounted to be movable relative to the support (22) to one or other of four intermediate actuation positions that are offset angularly by 45° relative to the main actuation positions, and in each of which two contact blades (34) are simultaneously in contact with the associated fixed contacts (30b).

Abstract: The invention proposes an electrical switch (20) with multiple switching ways comprising a bottom support (22) in the bottom (32) of which are arranged fixed contacts (30a, 30b, 30c, 30d), a top member (26) that is mounted to be movable relative to the bottom support (22) from a central rest position to four main actuation positions distributed angularly at 90°, and a contact plate (28) that comprises four contact blades (34) each of which is capable of coming into contact with a fixed contact (30b), characterized in that the actuation member (26) is mounted to be movable relative to the support (22) to one or other of four intermediate actuation positions that are offset angularly by 45° relative to the main actuation positions, and in each of which two contact blades (34) are simultaneously in contact with the associated fixed contacts (30b).

Abstract: A smart card connector has a housing (11) formed by an insulative contact holder (12) and a sheet metal cover (14) that has an upper plate (46) lying above an upper face of the contact holder, to form a card-receiving cavity (30) between them. A wire spring (16) has a spiral wound planar main portion (141) that is mounted to lie on the upper surface of the sheet metal upper plate (46). The wire spring has a first end portion (144) fixed to the cover and has a second end portion (158) with a right angle bend (160) leading to a downwardly-extending ejection spring part (162). The ejection spring part extends though a slot (66) in the cover upper plate portion and into the cavity to lie in the path of the card leading edge.

Abstract: A stamp device for printing a pattern on a surface of a substrate having a two-sided rigid carrier layer providing on its first side a patterned layer made of a first material and being combined on its second side with a soft layer made of a softer material than that of the first material.

Abstract: A smart card connector has a housing (11) formed by an insulative contact holder (12) and a sheet metal cover (14) that has an upper plate (46) lying above an upper face of the contact holder, to form a card-receiving cavity (30) between them. A wire spring (16) has a spiral wound planar main portion (141) that is mounted to lie on the upper surface of the sheet metal upper plate (46). The wire spring has a first end portion (144) fixed to the cover and has a second end portion (158) with a right angle bend (160) leading to a downwardly-extending ejection spring part (162). The ejection spring part extends though a slot (66) in the cover upper plate portion and into the cavity to lie in the path of the card leading edge.

Abstract: A non-spray-dried granular component suitable for use in a particulate zero-phosphate laundry detergent composition comprises from 10 to 30 wt % of organic surfactant and from 20 to 50 wt % of zeolite MAP, the component having a bulk density not exceeding 700 g/l. The component may be prepared by a mixing and agglomeration process using a high-speed mixer, a moderate- or low-speed mixer, and a gas fluidization granulator. The component may be used in conjunction with a spray-dried granular component of lower bulk density, for example, a spray-dried detergent base powder containing organic surfactant and zeolite A, or a spray-dried sodium-carbonate-based adjunct.

Abstract: A particulate zero-phosphate laundry detergent powder, preferably of bulk density 600-900 g/l, contains zeolite MAP and zeolite A in a weight ratio of at least 1:1. The powder may contain at least two different granular components containing organic surfactant and zeolite builder. A first granular component, which is preferably non-spray-dried and has a bulk density of 550-900 g/l, contains zeolite MAP, while a second granular component, which is preferably spray-dried and has a bulk density of 200-450 g/l, contains zeolite A.

Abstract: A patterning device comprises a patterning cavity which has an opening located at the surface of the patterning device within a transfer region, where a substrate during patterning comes into conformal contact with the patterning device. A service cavity is located in a service region of the patterning device and is connected to the patterning cavity, such that a patterning fluid is able to flow from the service cavity to the patterning cavity. A patterning method uses this device.

Abstract: The invention describes a stamp device for printing a pattern on a surface of a substrate having a two-sided rigid carrier layer providing on it's first side a patterned layer made of a first material and being combined on it's second side with a soft layer made of a softer material than said first material.

Abstract: A patterning device comprises a patterning cavity which has an opening located at the surface of the patterning device within a transfer region, where a substrate during patterning comes into conformal contact with the patterning device. A service cavity is located in a service region of the patterning device and is connected to the patterning cavity, such that a patterning fluid is able to flow from the service cavity to the patterning cavity. A patterning method uses this device.