Stöckeler, Ferdinand

Proposed is a cloth sheet for travel carrier bags, the sheet including a cloth layer configured to include a first surface and a second surface opposite to the first surface, and to constitute an inner skin, a mesh layer configured to include a third surface and a fourth surface opposite to the third surface, and attached to the first surface in a laminated structure by thermal compression, and a polypropylene layer configured to include a fifth surface and a sixth surface opposite to the fifth surface, attached to the third surface in a laminated structure by thermal compression, and configured to constitute an outer skin, wherein the cloth sheet may have a sterilization layer by sterilizing at least one layer among the cloth layer, the mesh layer, and the polypropylene layer. In addition to this, various embodiments identified through the specification may be possible.

A multilayer ceramic capacitor (1) includes a multilayer body (10) having a first surface P1 and a second surface P2 that face oppositely in a lamination direction T and a fifth surface P5 and a sixth surface P6 that face oppositely in a second direction D2 orthogonally intersecting the lamination direction T. The multilayer ceramic capacitor (1) also includes a pair of outer electrodes (40) connected to first inner electrodes (31) and to second inner electrodes (32), respectively. The size of the multilayer body (10) in the lamination direction T is greater than the size thereof in the second direction D2. Inner electrodes (30) are arranged in the lamination direction T, and an amount of deviation of an end of each inner electrode (30) in the second direction D2 is 0.5 µm or less. When the multilayer body (10) is divided into a region R1 closer to the first surface P1 and a region R2 closer to the second surface P2, a maximum distance between the fifth surface P5 and the first inner electrodes (31) in the second direction D2 is greater in the region R2 than in the region R1.

A multilayer ceramic capacitor (1) includes a multilayer body (10) having a first surface P1 and a second surface P2 that face oppositely in a lamination direction T and a fifth surface P5 and a sixth surface P6 that face oppositely in a second direction D2 orthogonally intersecting the lamination direction T. The multilayer ceramic capacitor (1) also includes a pair of outer electrodes (40) connected to first inner electrodes (31) and to second inner electrodes (32), respectively. The size of the multilayer body (10) in the lamination direction T is greater than the size thereof in the second direction D2. The multilayer body (10) includes inner electrodes (30) arranged in the lamination direction T, and an amount of deviation of an end of each inner electrode 30 in the second direction D2 is 0.5 µm or less. When the multilayer body (10) is divided into a region R1 closer to the first surface P1 and a region R2 closer to the second surface P2, the concentration of an additive being present between the fifth surface P5 and the first inner electrodes (31) is higher in the region R2 than in the region R1.

The present invention relates to a rear floor structure of a vehicle, and a vehicle. The rear floor structure of a vehicle includes a frame (1) and a seat rail (2), where the frame (1) includes rear longitudinal beam (11), the seat rail (2) includes first rail member (21), the first rail member (21) is connected to a top of the rear longitudinal beam (11), where both the first rail member (21) and each rear longitudinal beam (11) extend in a front-rear direction of the vehicle, a projection of each first rail member (21) in a height direction of the vehicle at least partially overlaps a projection of the rear longitudinal beam (11) in a height direction of the vehicle, and the first rail member (21) is connected to the rear longitudinal beam (11) through a fastener, to strengthen the rear longitudinal beam (11) to resist a rear collision load.

A space-constrained processing machine includes a machine body, at least one rack and at least one accessory. The machine body includes a host and a door panel. The door panel is disposed at the opening of the host, and the host and the door panel together define an accommodating space. The rack is disposed in the accommodating space. The accessory is assembled with the rack, and each accessory includes a flexible body for connecting the rack. The accessories can provide a fully usage of the entire accommodating space inside the space-constrained processing machine, so that the space-constrained processing machine can achieve the maximum performance.

A floor assembly(100) for a vehicle and a vehicle are disclosed. The floor assembly(100) includes a front floor (1)and a middle-back floor(2), and a whole surface of the front floor(1) extends in a fore-aft direction of the vehicle; and the middle-back floor(2) is connected to the front floor(1), a whole surface of the middle-back floor(2) extends in a first direction, and an included angle exists between the first direction and the fore-aft direction of the vehicle.

A cell housing device that enables manipulation of the posture of a target cell accommodated in a well is provided. A cell housing device includes a well and a posture manipulation device. The well has inner wall surfaces that accommodate a target cell immersed in a liquid. The target cell is a cell or a cell aggregate. The posture manipulation device has a retention channel. The retention channel drains a fluid from the well via the inner wall surface of the well, to bring the target cell into a retained state in which the target cell is rotatably retained at a tip end of the retention channel. The posture manipulation device manipulates the posture of the target cell by rotating the target cell in the retained state.

A dual-chamber electronic device includes a base unit (1) including a lower chamber member (11) and two first connecting members (14) connected fixedly to the lower chamber member (11), and a mount seat unit (2) including an upper chamber member (21), an upper cap (22) disposed on the upper chamber member (21), and two second connecting members (25) fixedly connected to the upper chamber member (21) and detachably and respectively connected to the two first connecting members (14). The upper chamber member (21) has an upper bottom wall (212) disposed on the base unit (1), and an upper surrounding wall (21) extending from a periphery of the upper bottom wall (212) upwardly. The mount seat unit (2) is operable to move between first and second operating states where the upper bottom wall (212) abuts against and does not abut against the base unit (1), respectively.

A measurement apparatus (10) according to the present disclosure includes a generator (121) that irradiates electromagnetic waves on a measurement target (M), a receiver (122) that receives the electromagnetic waves including information on a spectroscopic spectrum of the measurement target (M), the spectroscopic spectrum changing as a result of a structural transition of a substance contained in the measurement target (M) from a first substance with an unstable structure to a second substance with a stable structure due to an external factor applied to the measurement target (M), and a controller (116) configured to acquire a measurement of the spectroscopic spectrum based on the electromagnetic waves received by the receiver (122), calculate ratio information between the first substance and the second substance based on the acquired measurement of the spectroscopic spectrum, and generate diagnostic information regarding the external factor based on the ratio information. The substance includes calcium carbonate, the first substance includes amorphous calcium carbonate or calcium carbonate hydrate, and wherein the second substance includes calcium carbonate having a calcite crystal structure.

A method for detecting microorganisms is provided in which when target microorganisms are detected in a microorganism-containing sample, ease of handling like liquid culture media is maintained, and even when multiple bacterial species are present in the sample, each bacterial species is allowed to grow sufficiently by suppressing growth inhibition by the influence of other bacterial species, thereby improving the detection accuracy of the target microorganisms. The method includes: a) inoculating a microorganism-containing sample into a culture medium for microorganisms that contains an environment-responsive polymer that can cause the solution to thermoreversibly transition between fluidized and non-fluidized states depending on a solution environment; b) culturing microorganisms while maintaining the culture medium in a non-fluidizing environment; c) adjusting the culture medium to a fluidizing environment after the culturing of the microorganisms; d) recovering the cultured microorganisms from the culture medium; and e) detecting target microorganisms in the recovered microorganisms.