Dr. Gassner & Partner mbB

Schrankvorrichtung (1) für elektrische Installationen und/oder Regelungen, wobei die Schrankvorrichtung (1) eine Vorderseite und eine der Vorderseite bezüglich einer Tiefenrichtung gegenüberliegende Rückseite hat und aufweist:- einen Rahmen (3), der mehrere Rahmenflächen (4, 5, 6, 7) ausbildet; und- eine Rückwand (8), die den Rahmen (3) auf der Rückseite abschließt;dadurch gekennzeichnet, dassdie Rahmenflächen (4, 5, 6, 7) jeweils aus mehreren aus einem Fasermaterial gebildeten Rahmenmodulen (16, 17a, 17b, 18, 41a, 41b) gebildet sind, die jeweils wenigstens einen in eine umfänglich um den Rahmen (3) verlaufende Montagerichtung (M) abstehenden, hinterschnittenen Vorsprung (19) und wenigstens eine Ausnehmung (20) aufweisen, wobei die Ausnehmung (20) eines jeweiligen Rahmenmoduls (16, 17a, 17b, 18, 41a, 41b) gegengleich zum wenigstens einen Vorsprung (19) des dem jeweiligen Rahmenmodul (16, 17a, 17b, 18, 41a, 41b) entlang der Montagerichtung (M) nachfolgenden Rahmenmoduls (16, 17a, 17b, 18, 41a, 41b) ausgebildet ist und den wenigstens einen Vorsprung (19) formschlüssig hintergreift.

The present invention provides a top toy game board that allows a top toy to spin around not only two-dimensionally but also three-dimensionally. Provided is a top toy game board 10 formed with a floor 12a on which a top toy 50 is spun and released to play. The top toy 50 includes a shaft 52 to which a gear 53 is provided. The top toy game board 10 includes a slope 14 on which the top toy 50 moves up, and a rack 15 configured to mesh with the gear 53 as the top toy 50 spins around and causes the top toy 50 to run up the slope 14. With this structure, since the rotational force of the top toy itself accelerates the top toy as it runs up the slope, the range in which the top toy moves around can be three-dimensional (stereoscopic) so that a highly entertaining top toy game board is provided.

The present application relates to a recognition method, equipment, device and medium for recognizing a personal state based on multi-modal data. The recognition method includes: acquiring sample physiological data in a plurality of modes of a plurality of subjects respectively in each state preset by a state classifier; acquiring multi-modal to-be-analyzed physiological data of a target person; enhancing the sample physiological data by applying a GAN to obtain augmented baseline data; extracting multi-modal graph features of the normalized baseline data by applying a GCN to obtain state features related to each state preset by the state classifier; with the normalized baseline data including the state features as a source domain and the multi-modal to-be-analyzed physiological data as a target domain, performing transfer adaptation from the source domain to the target domain by applying a domain adaptation network so as to extract individual-independent objective physiological data features in the multi-modal to-be-analyzed physiological data; and inputting the individual-independent objective physiological data features to the state classifier so as to determine the personal state of the target person according to an output result of the state classifier.

A biosynthetic method and composition for producing an Indigo dyestuff including Indigotin and Indirubin. Tryptophanase (TRP) and flavin-containing monooxygenase (FMO) are generated from a genetically-modified organism having a vector coding for tryptophanase and flavin-containing monooxygenase. The conversion of L-tryptophan to Indigo dyestuff is converted by the generated TRP and FMO in the presence of one or more bioactive additives selected from the cysteine, 2-oxindole, or 2-indoxyl to form a dyestuff having a ratio of Indigotin to Indirubin by weight between 1:0.1 to 1:4. The dyestuff has a color hue defined by CIE XYZ color space with X: 0.1920 to 0.2481, Y: 0.2537 to 0.2019, Z: 0.5543 to 0.5501. Selectable and reproduceable color hues are provided.

The present invention provides a video laryngoscope (100) to perform the intubation process. The video laryngoscope (100) includes a handle (10), a blade (20), a display unit (30), and an attachment assembly (25). The handle (10) includes a camera housing (16) with an image sensor (161) and a light source (162) arranged therein. The image sensor (161) is attached to the handle (10) through a camera channel (15) to visualise the path of the endotracheal tube. The camera housing (16) has a deflector (18) to avoid the blurry and distorted visuals generated due to the scattering of the light from the light source (162). The blade (20) is arranged on the handle (10) to cover the handle (10) and the camera channel (15). Further, the display unit (30) is provided for better visibility of the display screen (34) to visualise the path of the endotracheal tube.

The present invention provides a video laryngoscope (100) to perform the intubation process. The video laryngoscope (100) includes a handle (10), a blade (20), a display unit (30), and an attachment assembly (25). The handle (10) includes a camera housing (16) with an image sensor (161) and a light source (162) arranged therein. The image sensor (161) is attached to the handle (10) through a camera channel (15) to visualise the path of the endotracheal tube. The camera housing (16) has a deflector (18) to avoid the blurry and distorted visuals generated due to the scattering of the light from the light source (162). The blade (20) is arranged on the handle (10) to cover the handle (10) and the camera channel (15). Further, the display unit (30) is provided for better visibility of the display screen (34) to visualise the path of the endotracheal tube.

The present invention provides a video laryngoscope (100) to perform the intubation process. The video laryngoscope (100) includes a handle (10), a blade (20), a display unit (30), and an attachment assembly (25). The handle (10) includes a camera housing (16) with an image sensor (161) and a light source (162) arranged therein. The image sensor (161) is attached to the handle (10) through a camera channel (15) to visualise the path of the endotracheal tube. The camera housing (16) has a deflector (18) to avoid the blurry and distorted visuals generated due to the scattering of the light from the light source (162). The blade (20) is arranged on the handle (10) to cover the handle (10) and the camera channel (15). Further, the display unit (30) is provided for better visibility of the display screen (34) to visualise the path of the endotracheal tube.

The present invention provides a method (300) for operating a video laryngoscope, enhancing usability during endotracheal intubation procedures. The method involves controlling a display unit attached to a laryngoscope handle to present real-time visual data captured by a camera housing located at the distal end of the handle. The display unit automatically adjusts the orientation of the displayed visual data based on the angle of the display unit relative to the handle, ensuring proper alignment during the procedure. The method (300) includes capturing and storing visual data in an integrated memory module, providing clinicians with the ability to review, manage, and capture data through a user-friendly interface. Additionally, the video laryngoscope (100) enables secure connection to external devices for data transfer using password-protected encryption to safeguard patient information. The method (300) improves overall functionality by improving the user experience, enhancing security, and providing clear visual feedback during medical procedures.

The present invention provides a video laryngoscope (100) to perform the intubation process. The video laryngoscope (100) includes a handle (10), a blade (20), a display unit (30), and an attachment assembly (25). The handle (10) includes a camera housing (16) with an image sensor (161) and a light source (162) arranged therein. The image sensor (161) is attached to the handle (10) through a camera channel (15) to visualise the path of the endotracheal tube. The camera housing (16) has a deflector (18) to avoid the blurry and distorted visuals generated due to the scattering of the light from the light source (162). The blade (20) is arranged on the handle (10) to cover the handle (10) and the camera channel (15). Further, the display unit (30) is provided for better visibility of the display screen (34) to visualise the path of the endotracheal tube.

A light-up toy includes a plurality of illuminants, a template with a plurality of holes, and a cover body that covers an outer surface of the template, in which the plurality of illuminants is configured to be individually controllable to emit light, the light emitted from the illuminants being directed to the cover body through the holes that correspond to the illuminants, respectively, to form a light pattern visible from outside on an outer surface of the cover body. An inner surface of the template is integrally provided with a partition wall that partitions between one of the holes corresponding to any one of the illuminants and another one of the holes corresponding to another one of the illuminants.