Abstract: A thermal imaging camera includes a housing, a front bracket, an infrared assembly for detecting infrared radiation, and a visual assembly for receiving visual radiation. The infrared assembly and the visual assembly are disposed substantially within the housing. The camera further includes at least one cooling element for cooling at least the infrared assembly. The camera also includes a positioning device configured to position the visual assembly to the infrared assembly.

Abstract: A thermal imaging camera includes a housing, an infrared assembly for detecting infrared radiation, and a visual assembly for receiving visual radiation. The infrared assembly and the visual assembly are disposed substantially within the housing. The camera further includes at least one cooling element for cooling at least the infrared assembly. The thermal imaging camera also includes a sensor mount configured to connect the infrared assembly to the cooling element.

Abstract: A process for applying a method for increasing a resolution of an image of a thermal imaging camera includes (i) providing image data, wherein the image data comprises a defined number of images, wherein the images are regular camera images and/or thermal images, and wherein the image data is captured by the thermal imaging camera, (ii) analyzing a contrast in the image data, and (iii) initiating the application of the method for increasing the resolution as a function of a result of the analysis of the contrast in the image data. A computer program, a device, and a storage medium for this purpose is also disclosed.

Abstract: A method for providing a thermal image of a thermal imaging camera with an increased resolution, includes (i) initiating a vibration by a vibratory motor of the thermal imaging camera to provide movement during capturing of image data by the thermal imaging camera, (ii) initiating the capturing of image data by the thermal imaging camera during the vibration, wherein the image data comprises at least two thermal images, and (iii) determining the thermal image based on a method for increasing a resolution of the thermal image. A computer program, a device, and a storage medium for this purpose is also disclosed.

Abstract: A method for reducing noise in image data includes (i) providing image data, wherein the image data comprises at least one thermal image, wherein the image data results from a detection of at least one sensor, (ii) determining a temperature difference represented in the at least one thermal image based on an analysis of temperature data of the at least one thermal image, (iii) determining a number of averages for an evaluation of further image data based on the determined temperature difference, wherein the number of averages specifies how many thermal images are averaged for the evaluation of the further image data, wherein the further image data results from a further detection of the at least one sensor, and (iv) reducing the noise in the further image data by the evaluation with the determined number of averages. An associated computer program, a device, and a storage medium are also disclosed.

Abstract: A method for operating a thermal imaging camera includes measuring two-dimensional temperature information including a thermal image of a setting using an infrared detector array of the thermal imaging camera, the infrared detector array including a plurality of pixels sensitive to infrared radiation. At least one of ambient humidity information and ambient air temperature information is provided. An evaluation device is used to calculate two-dimensional information about a mold formation risk. The method includes generating a mold risk map of the setting using a mold growth model and using the calculated two-dimensional temperature information, and the provided at least one of ambient humidity information and ambient air temperature information.

Abstract: The disclosure relates to a method for the noise optimization of a camera, in particular a handheld thermal imaging camera. Images are captured by means of the camera in at least one method step; at least one movement characteristic variable is detected by means of at least one sensor unit of the camera in at least one method step; and image data of captured images is averaged by means of a computing unit of the camera in at least one method step. At least a number of images to be averaged are determined by means of the computing unit of the camera at least on the basis of an intensity of the detected movement characteristic variable, in particular a change rate, in at least one method step.

Abstract: A method for operating a thermal imaging camera includes measuring two-dimensional temperature information including a thermal image of a setting using an infrared detector array of the thermal imaging camera, the infrared detector array including a plurality of pixels sensitive to infrared radiation. At least one of ambient humidity information and ambient air temperature information is provided. An evaluation device is used to calculate two-dimensional information about a mold formation risk. The method includes generating a mold risk map of the setting using a mold growth model and using the calculated two-dimensional temperature information, and the provided at least one of ambient humidity information and ambient air temperature information.

Abstract: The disclosure relates to a method for the noise optimization of a camera, in particular a handheld thermal imaging camera. Images are captured by means of the camera in at least one method step; at least one movement characteristic variable is detected by means of at least one sensor unit of the camera in at least one method step; and image data of captured images is averaged by means of a computing unit of the camera in at least one method step. At least a number of images to be averaged are determined by means of the computing unit of the camera at least on the basis of an intensity of the detected movement characteristic variable, in particular a change rate, in at least one method step.

Abstract: A multipurpose table may include an inner recessed area having a floor, a ledge around at least a portion of the perimeter of the table, and one or more rails between the floor and the ledge. The floor may be adjustable between various heights. A plurality of table covers may rest on the rails and be flush with the ledge. Table accessories may include attachment mechanisms for securing the accessories to the ledge. The attachment mechanisms may include stops insertable through a top surface of the table surface proximate the rail, and a cavity securable around the ledge. A stop receiver may also be positioned around the ledge and capable for receiving the stop.

Abstract: The invention relates to a mobile sanitary device, comprising a bowl having an upper opening, a water storage tank which is connected to the bowl via a water conduit that supplies water from the water storage tank to the bowl, a wastewater tank which is connected to the bowl via a wastewater line that discharges the wastewater out of the bowl from a bowl outlet opening to the wastewater tank, a first intermediate tank which is inserted into the water conduit between the water storage tank and the bowl or into the wastewater line between the bowl outlet opening and the wastewater tank.

Abstract: The invention relates to a mobile sanitary device, comprising a bowl having an upper opening, a water storage tank which is connected to the bowl via a water conduit that supplies water from the water storage tank to the bowl, a wastewater tank which is connected to the bowl via a wastewater line that discharges the wastewater out of the bowl from a bowl outlet opening to the wastewater tank, a first intermediate tank which is inserted into the water conduit between the water storage tank and the bowl or into the wastewater line between the bowl outlet opening and the wastewater tank.

Abstract: A method of administering a bid, through a computer system having a one server, a client device, and a communication network operatively and electrically connecting the client device to the least one server. A first user accesses from the client device, a website running on the server, and enters data into the client device. A second user accesses from the client device, the website and enters data into the client device. The data is transmitted to the server. A program generates results on the server, and displays the results associated with the data on the client device. Bidding information is communicated between the first user and the second user through a bidding program.

Abstract: The preferred embodiment of the present invention is a die casting apparatus and method evidencing increased apparatus output including the ability of using multiple die tools. The invention includes an indexing assembly removably engaged with at least one die block assembly for transporting between four stations, including an injection station, a cooling station, an ejection station, and a recovery station. The injection station includes a frame, a clamp assembly attached to the frame for clamping and releasing the die block assembly, a shot sleeve assembly engaged with the die block assembly for receiving molten material, such as metal, from a furnace means and injecting the molten material into the die block assembly, and a shot cylinder releasably coupled with the shot sleeve assembly for controlling the injection of molten material.

Abstract: The preferred embodiment of the present invention is a die casting apparatus and method evidencing increased apparatus output including the ability of using multiple die tools. The invention includes an indexing assembly removably engaged with at least one die block assembly for transporting between four stations, including an injection station, a cooling station, an ejection station, and a recovery station. The injection station includes a frame, a clamp assembly attached to the frame for clamping and releasing the die block assembly, a shot sleeve assembly engaged with the die block assembly for receiving molten material, such as metal, from a furnace means and injecting the molten material into the die block assembly, and a shot cylinder releasably coupled with the shot sleeve assembly for controlling the injection of molten material.

Abstract: The preferred embodiment of the present invention is a die casting apparatus and method evidencing increased apparatus output including the ability of using multiple die tools. The invention includes an indexing assembly removably engaged with at least one die block assembly for transporting between four stations, including an injection station, a cooling station, an ejection station, and a recovery station. The injection station includes a frame, a clamp assembly attached to the frame for clamping and releasing the die block assembly, a shot sleeve assembly engaged with the die block assembly for receiving molten material, such as metal, from a furnace means and injecting the molten material into the die block assembly, and a shot cylinder releasably coupled with the shot sleeve assembly for controlling the injection of molten material.

Abstract: The preferred embodiment of the present invention is a die casting apparatus and method evidencing increased apparatus output including the ability of using multiple die tools. The invention includes an indexing assembly removably engaged with at least one die block assembly for transporting between four stations, including an injection station, a cooling station, an ejection station, and a recovery station. The injection station includes a frame, a clamp assembly attached to the frame for clamping and releasing the die block assembly, a shot sleeve assembly engaged with the die block assembly for receiving molten material, such as metal, from a furnace means and injecting the molten material into the die block assembly, and a shot cylinder releasably coupled with the shot sleeve assembly for controlling the injection of molten material.

Abstract: A stowage rack is disclosed for dry transport of nuclear fuel elements in a plurality of elongated, parallel, adjacent prismatic cells. The rack is formed from first and second sets of materials, the first set of materials fulfilling the function of mechanical strength and thermal conductivity, and the second set of materials fulfilling the function of neutron absorption. The stack may be formed entirely of materials fulfilling the function of mechanical strength and thermal conductivity, with the neutron absorption materials being provided within the walls of the cells. Alternatively, materials providing mechanical strength and thermal conductivity may be stacked alternately with materials providing neutron absorption.