Fuchs Patentanwälte Partnerschaft mbB

A robotic picking system comprises an imaging device, an image processor, and a pick planning processor. The imaging device captures visual data of objects in a pick area. The image processor analyzes the visual data to generate a classification map distinguishing between general surface regions and designated feature regions of the objects. The pick planning processor receives the classification map and executes an optimization algorithm that assigns weighted values to different surface regions, wherein designated feature regions are assigned penalty values. The processor determines picking parameters including object selection, end effector positioning, and end effector activation configuration based on minimizing a cost function that incorporates the weighted values. The system enables automated object manipulation while reducing interaction with designated surface features through mathematical optimization of picking strategies.

The present disclosure relates to anti-CD38 antibodies and fragments thereof, therapeutic, diagnostic and surgical uses of such antibodies or fragments thereof, as well as methods of making these antibodies or fragments thereof. Further, this disclosure includes nucleic acids encoding the antibodies and fragments thereof, and host cells comprising such nucleic acids.

Die Erfindung betrifft einen Schalldämpfer (10) für eine Feuerwaffe, aufweisend:- ein an einer Rohrmündung der Feuerwaffe anbringbares Ansatzstück (12);- einen in Geschossflugrichtung (G) hinter dem Ansatzstück (12) angeordneter Vorkammerabschnitt (16) mit einer Vorkammer (18);- einen in Geschossflugrichtung (G) hinter dem Vorkammerabschnitt (16) angeordneter Hauptkammerabschnitt (20) mit einer Hauptkammer (22), wobei in der Hauptkammer (22) zumindest ein Schalldämpfungselement (24) zur Reduzierung eines Geschossknalls angeordnet ist; und- einen in Geschossflugrichtung (G) hinter dem Hauptkammerabschnitt (20) angeordneter Endabschnitt (26) mit einer Endkammer (32);wobei der Endabschnitt (26) einen in Geschossflugrichtung (G) konvergierenden Teilabschnitt (28) aufweist.

The present invention relates to a cooling element. The present invention also relates to a stack comprising such a cooling element.

A temperature-controlled foodservice unit includes: a body including a frame and defining a chamber; and temperature-controlled systems operatively coupled with the frame and configured for transferring heat with respect to a food product positioned within the chamber, the temperature-controlled systems including: a temperature-controlled shelf system including at least one shelf and at least one fluid passageway, the at least one shelf being positioned within the chamber, the at least one fluid passageway being associated with the at least one shelf and configured for carrying a fluid therein so as to transfer heat by thermal conduction and thermal radiation with respect to the food product on the shelf; and a temperature-controlled air system configured for moving air through the chamber so as to transfer heat by thermal convection with respect to the food product positioned on the at least one shelf and for supplying air to the chamber from opposing directions.

The invention concerns a semiconductor assembly (1) and methods of manufacturing and cooling same. the semiconductor assembly (1) comprises: - at least one first chip (10) and at least one second chip (12), wherein the first chip (10) is provided with at least one cooling structure (42) through which cooling fluid can flow; - a manifold having at least one inlet port (36) for receiving a cooling fluid, and at least one outlet port (38) for releasing the cooling fluid; - at least one cover member (14) having a first face (50) that is arranged opposite to at least a section of a first surface (52) of the at least one second chip (12), wherein a space (48) in which cooling fluid can flow is defined between the first face (50) and first surface (52) and the space (48) is fluidically connected to the manifold (34); - at least a first sealing member (18) at least a section of which is arranged between the manifold (34) and the first chip (10), wherein the first sealing member (18) comprises at least one fluid opening (22) that fluidically connects the cooling structure (42) of the first chip (10) and the manifold (34), wherein the cover member (14) is more rigid and/or harder than the first sealing member (18), in particular at least 50-times more rigid and/or at least 2-times harder.

Attachment device (10) comprising both a base plate (11) able to be selectively anchored to a support plane (1200) by means of anchoring elements (110), and also a connection plate (12) which is provided with a plurality of apertures (21) and is located transversely to said base plate (11) and is able to be selectively connected to a panel (100) by means of connection elements (111).

An alkyl bisphenol composition and a method for preparing the same are provided. The alkyl bisphenol composition includes 99.85wt% to 99.999wt% of an alkyl bisphenol; 0.0001wt% to 0.01wt% of a monophenolic compound; 0.0001wt% to 0.01wt% of a reaction adduct of alkyl bisphenol; and 0.0001wt% to 0.1497wt% of an aromatic compound, wherein the aromatic compound is not the alkyl bisphenol, the monophenolic compound, or the reaction adduct of alkyl bisphenol.

An eye drop platform for delivering active ingredients to anterior chamber tissue and/or posterior chamber tissue of eye is provided. The eye drop platform for delivering active ingredients to anterior chamber tissue and/or posterior chamber tissue of eye includes a delivery composition and a pharmaceutically acceptable solvent for dissolving the delivery composition to form a solution as the eye drop platform for delivering active ingredients to anterior chamber tissue and/or posterior chamber tissue of eye. The delivery composition includes cyclodextrin and/or a derivative thereof, and caffeine. The concentration of the cyclodextrin and/or the derivative thereof in the solution ranges from 5-500 mg/mL, and the concentration of the caffeine in the solution ranges from 0.5-50 mg/mL. The active ingredient is a hydrophilic compound, and the hydrophilic compound has a water solubility greater than 1 mg/mL.

A high-conversion-efficiency integrated frequency comb device (100; 200; 310a - 310c) comprises at least one micro-resonator (120; 220) configured to receive pump laser light from at least one pump laser source, convert at least partially the received pump laser light for generating a laser frequency comb, and output frequency comb light based on the produced laser frequency comb. The micro-resonator (120; 220) comprises at least one closed-circuit waveguide (122; 222) integrated in a semi-conductor topography of the micro-resonator (120; 220). The closed-circuit waveguide (122; 222) comprises at least one structure for producing periodic perturbation (124; 224) configured to produce mode hybridization via coupling of forwards and backwards travelling modes in the closed-circuit waveguide (122; 222) by means of rapid, in particular sub-wavelength, modulation of a propagation constant of light propagating in the closed-circuit waveguide (122; 222). The structure for producing periodic perturbation (124; 224) has been designed with respect to at least one of an intended width, in terms of comb lines, of the frequency comb and/or an intended intensity distribution within a target width, in terms of comb lines, of the frequency comb, based at least partially on the stipulation that a dispersion-loss operator to achieve an ideally flat microcomb according to an exact solution of a generalized Lugiato-Lefever Equation exists in the form [iD̂ + K̂], and, as a function of resonator mode index µ, the dispersion-loss operator takes the following generic form: D ^ μ = 0 = h <img class="EMIRef" id="da8bfc3f-4a78-4291-9496-800a3cd1904c-ia01" /> D ^ μ ≠ 0 = a + b μ + cμ 2 + d 3 μ 3 + ⋯ + d ∞ μ ∞ <img class="EMIRef" id="da8bfc3f-4a78-4291-9496-800a3cd1904c-ia02" /> K ^ μ = 0 = p <img class="EMIRef" id="da8bfc3f-4a78-4291-9496-800a3cd1904c-ia03" /> K ^ μ ≠ 0 = q + r μ + sμ 2 + u 3 μ 3 + ⋯ + u ∞ μ ∞ <img class="EMIRef" id="da8bfc3f-4a78-4291-9496-800a3cd1904c-ia04" /> , wherein a, b, c, d3 ... d∞ , h, p, q, r, s, u3 ... u∞ are constants, and µ ≤ N/2 for N being the number of intended comb lines apart from a potential comb line corresponding to the pump laser light.