Abstract: A method for starting-up a device with an embedded multimedia card (eMMC) is provided. The method comprises providing power to the device, putting the eMMC in a Fast-Boot modus, reading a bootloader from the eMMC into a RAM of the device, starting the bootloader in a CPU of the device, terminating the Fast-Boot modus, resetting the eMMC, putting the eMMC in the Fast-Boot modus initializing hardware by the bootloader, while reading an operating system into the RAM using DMA, and starting the operating system from the RAM by the bootloader is provided. A device comprising an embedded eMMC is also disclosed.

Abstract: A vaporizer device may include a controller and a heater control circuitry. The controller may generate, based at least on a temperature of a heating coil in a cartridge coupled with the vaporizer device, an output signal for controlling a discharge of a battery of the vaporizer device. The battery may be discharged to the heating coil to increase the temperature of the heating coil and cause a vaporization of a vaporizable material contained in the cartridge. The heater control circuitry may determine the temperature of the heating coil. The heater control circuitry may further control, based on the output signal from the controller, the discharge of the battery to the heating coil. The heater control circuitry may be powered by a voltage rail coupled to a voltage regulator configured to regulate an output voltage of the battery.

Abstract: Features relating to a vaporizer body are provided. The vaporizer body may include an outer shell that includes an inner region defined by an outer shell sidewall. A support structure is configured to fit within the inner region of the outer shell. The support structure includes a storage region defined by a top support structure, a bottom support structure, a bottom cap, and a gasket. An integrated board assembly is configured to fit within the storage region of the support structure. The integrated board assembly may include a printed circuit board assembly formed of multiple layers that form a rigid structure and that include an inner, flexible layer. A first antenna is integrated at a proximal end of the flexible layer, and a second antenna is integrated at a distal end of the flexible layer.

Abstract: A vaporizer device may include a pressure sensor and an ambient pressure sensor. The pressure sensor may be configured to measure a first pressure in an air flow path in the vaporizer device. The ambient pressure sensor may be configured to measure a second pressure corresponding to an atmospheric pressure. The vaporizer device may further include a controller. The controller may be configured to transition the vaporizer device to a first standby mode when the first pressure is equal to or greater than the second pressure for a first threshold quantity of time. While the vaporizer device is in the first standby mode, the controller may be further configured to transition the vaporizer device to a second standby mode when the second pressure is a threshold quantity greater than the first pressure and no motion event is detected for a second threshold quantity of time.

Abstract: A method is useable for correcting a spherical aberration of a microscope having an objective and a cover slip or object carrier, the objective having a correction element for correcting the spherical aberration. The method includes: ascertaining, by the microscope, an index of refraction of an optical medium bordering the cover slip or object carrier and/or a thickness of the cover slip or object carrier along an optical axis of the objective, ascertaining the spherical aberration based on the index of refraction of the optical medium and/or the thickness of the cover slip or object carrier, and ascertaining, based on the spherical aberration, a positioning variable, by which the correction element is adjusted so that the spherical aberration is corrected.

Abstract: A cartridge (650) includes an atomizer assembly, a reservoir (658A), and a mouthpiece (652). The atomizer assembly may heat a vaporizable material to generate an inhalable vapor. The reservoir may store the vaporizable material and includes a wick housing (688) around an atomizer assembly configured to heat a vaporizable material to generate an inhalable vapor. The wick housing includes a headspace vent (6059) positioned at a proximal end of the wick housing. The headspace vent may allow air to pass from the reservoir. The cartridge also includes a vent rod (6061) positioned over the headspace vent.

Abstract: A confocal microscope includes an illumination unit configured to generate an illumination light bundle, an imaging optics configured to receive detection light, a scanner configured to deflect the illumination light bundle to generate a scanning illumination and to direct the detection light into a detection beam path, a sensor disposed in the detection beam path, a pinhole diaphragm arranged in the detection beam path upstream of the sensor, an adjustable light deflector arranged in the detection beam path and configured to direct the detection light through the pinhole diaphragm onto the sensor, and a controller configured to control the scanner to adjust the confocal microscope in such a manner that the illumination light bundle is directed onto a test object, and control the light deflector in such a manner that an intensity of the detection light coming from the test object, as detected by the sensor, is optimized.

Abstract: A microscope includes: an optical system including an immersion objective for an immersion medium of a predetermined refractive index; an aperture stop; and a processor for setting an immersion-free imaging mode in which the optical system is operated without immersion medium. The processor controls the aperture stop in the immersion-free imaging mode to set a numerical aperture of the immersion objective to a reduced value which is lower than a nominal value of the numerical aperture, the numerical aperture being equal to the nominal value when the optical system is operated using the immersion medium without reducing the numerical aperture by the aperture stop. The processor controls the optical system in accordance with the reduced value of the numerical aperture in the immersion-free imaging mode to generate at least one image representing the overview image of the sample.

Abstract: Features relating to a vaporizer device including a vaporizer body and a cartridge for connecting to the vaporizer body are provided. The cartridge includes a wireless transceiver positioned proximate a distal end of the cartridge. The wireless transceiver is configured to transmit, receive, and/or store data and to communicate with a subset of remote devices, which may include the vaporizer body and one or more additional devices such as manufacturing, assembly, and filling equipment. The vaporizer body includes wireless communication circuitry that enables communication with remote devices, which may include the cartridge and user devices such as a wireless device. The vaporizer body is configured to identify the cartridge and implement operational instructions and/or apply configuration parameters received from an application and/or based on preset configuration parameters associated with the cartridge.

Abstract: A method for providing hydrogen gas includes providing a liquid hydrogen carrier material, removing oxygen-carrying and/or sulfur-carrying and/or halogen-containing components from the liquid hydrogen carrier material, releasing hydrogen gas by catalytic dehydrogenation of the purified hydrogen carrier material, and conditioning the released hydrogen gas.

Abstract: A method for determining a state of a hydrogen carrier material comprises using the hydrogen carrier material in a cyclic storage process, wherein each storage cycle comprises charging the hydrogen carrier material with hydrogen, releasing hydrogen from the hydrogen carrier material and producing a mixture by adding a defined amount of an indicator material to the hydrogen carrier material. Further, determining a proportion of the indicator material in the mixture and determining a number of storage cycles for the hydrogen carrier material on the basis of the determined proportion of the indicator material and/or a degradation of the hydrogen carrier material on the basis of the determined proportion of the indicator material as a state of the hydrogen carrier material are provided.

Abstract: Features relating to a vaporizer device including a reusable vaporizer device body are provided. The vaporizer device includes a hybrid heating system including a convection heater and/or a conduction heater for rapidly heating vaporizable material stored in the vaporizer device.

Abstract: A method for providing hydrogen gas comprises a release of hydrogen gas in a dehydrogenation reactor by catalytic dehydrogenation of an at least partially charged hydrogen carrier medium to form an at least partially discharged hydrogen carrier medium, a catalytic oxidation of the at least partially discharged hydrogen carrier medium means of an oxidizing agent to form an at least partially oxidized hydrogen carrier medium in an oxidation reactor, a reduction of the at least partially oxidized hydrogen carrier medium to form the at least partially charged hydrogen carrier medium by catalytic hydrogenation in a hydrogenation reactor and a removal of at least one oxygen-containing impurity from the at least partially charged hydrogen carrier medium and/or from the at least partially oxidized hydrogen carrier medium.

Abstract: A method is useable for determining a thickness of a cover slip or object carrier in a microscope, which has an objective facing toward a sample chamber. Two optical media border two opposing surfaces of the cover slip or object carrier and form two partially reflective interfaces, which are arranged at different distances from the objective. The method includes: deflecting a measurement light beam by the objective with oblique incidence on the cover slip or object carrier; generating two reflection light beams spatially separated from one another by the measurement light beam being partially reflected on each of the two interfaces; receiving the two reflection light beams by the objective and conducting them onto a position-sensitive detector; registering the incidence locations on the position-sensitive detector; and determining the thickness of the cover slip or object carrier based on the registered incidence locations.

Abstract: Features relating to a vaporizer body are provided. The vaporizer body may include an outer shell that includes an inner region defined by an outer shell sidewall. A support structure is configured to fit within the inner region of the outer shell. The support structure includes a storage region defined by a top support structure, a bottom support structure, a bottom cap, and a gasket. An integrated board assembly is configured to fit within the storage region of the support structure. The integrated board assembly may include a printed circuit board assembly formed of multiple layers that form a rigid structure and that include an inner, flexible layer. A first antenna is integrated at a proximal end of the flexible layer, and a second antenna is integrated at a distal end of the flexible layer.

Abstract: Vaporizer device features capable of improving on current approaches to mitigating against device damage or inoperability occurring from liquid exposure (e.g. exposure to liquid vaporizable material possibly affecting a pressure sensor, internal electronic circuitry, and/or electrical contact pins) are described.

Abstract: A vaporizer device may include a pressure sensor and an ambient pressure sensor. The pressure sensor may be configured to measure a first pressure in an air flow path in the vaporizer device. The ambient pressure sensor may be configured to measure a second pressure corresponding to an atmospheric pressure. The vaporizer device may further include a controller. The controller may be configured to transition the vaporizer device to a first standby mode when the first pressure is equal to or greater than the second pressure for a first threshold quantity of time. While the vaporizer device is in the first standby mode, the controller may be further configured to transition the vaporizer device to a second standby mode when the second pressure is a threshold quantity greater than the first pressure and no motion event is detected for a second threshold quantity of time.

Abstract: A method for the use of hydrogen as a resource includes producing a mixture by a catalytic reaction in a reactor. The mixture includes hydrogen carrier medium to which hydrogen can be chemically bound by a catalytic hydrogenation reaction and from which hydrogen can be released again by a catalytic dehydrogenation reaction, and hydrogen that is dissolved, i.e. physically stored, therein, and hydrogenating the hydrogen carrier medium with the dissolved hydrogen in a hydrogenation unit.