Hoyng Rokh Monegier B.V

A welding torch has a proximal portion, a distal portion including a contact tip and a diffuser, and a hexapod actuator located between the proximal portion of the welding torch and the distal portion of the welding torch. The hexapod actuator has a moving platform movable with six degrees of freedom and having a central opening through the moving platform. The distal portion of the welding torch is moved by said moving platform in said six degrees of freedom. A wire electrode is fed to the contact tip through the central opening of the moving platform during movement of the distal portion of the welding torch by the moving platform.

The system can include a first state factory configured to generate a sequence of first sensor states; a second state factory configured to generate a sequence of second sensor states; one or more beamsplitters optically coupled to the first state factory and to the second state factory, operable to interact the first sensor states with the second sensor states in a manner to generate entangled cluster states having multiple modes; and a homodyne detector optically coupled to an output of the one or more beamsplitters and operable to perform a homodyne measurement on a second subset of the modes at a measurement angle in phase space, the homodyne measurement causing the encoding of the non-Pauli states in a first subset of the modes.

An electro-optical device (1) comprising a radiation unit (10) adapted to emit a radiation beam (11) having a peak emission wavelength in a range of 280-320 nm, a detection unit (20) adapted to detect a distance to a user and generate a detection signal based on the detection, and a radiation control unit (30) adapted to receive the detection signal and generate a control signal in response. The electro-optical device (1) is adapted to provide an irradiance in the range 0.003-0.5 mW/cm<2> to the user.

A welding torch includes a handle and an actuating device operable to control the supply of welding current and a welding wire supplied to a weld. The handle includes a body with a front portion and a rear portion. The actuating device is arranged on the front portion of the body. A head is formed onto a distal end of the body and is configured to accommodate a non-consumable electrode extending along a longitudinal axis of the welding torch. A wire guide assembly is attached to the head of the welding torch. The wire guide assembly may be selectively rotated about the longitudinal axis to an angular position.

The invention relates to a phosphor material with the general formula (RE_1-aM_a)₂O₂(S_xSe_yTe_1-x-y), wherein: RE is one or more rare earth elements, preferably one or more selected from the group consisting of yttrium, lanthanum, gadolinium and lutetium, and M is one or more optically active ions, preferably selected from the group consisting of terbium, europium, samarium, praseodymium, holmium and erbium, wherein 0<a<1; 0≤x<1, 0≤y<1, and 0<x+y≤1, preferably wherein the phosphor material is in the form of particles having a diameter of less than about 100 µm, and more than about 100 nm. The invention further relates to phosphor components comprising the phosphor material of the invention, and methods for making such. The invention further relates to light emitting devices and lighting systems comprising the phosphor material or the phosphor component of the invention.

The present invention relates to microgel compositions comprising about 1.0 wt% to about 15 wt% RuBisCO protein and water or a plant-based milk. Further, microgel emulsion compositions are described. The microgel compositions and microgel emulsion compositions according to the present invention can be used in the preparation of dairy analogues, in particular acidified dairy analogues such as yogurt. The present invention further relates to the method of preparation of such compositions.

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The present invention relates to a wind turbine rotor blade comprising a leading-edge section having a leading-edge; a trailing-edge section having a trailing-edge; a pressure-side surface and a suction-side surface extending from the leading-edge section and meeting at the trailing-edge section; and an aerodynamic structure, for reducing noise, provided at the trailing-edge section, wherein the aerodynamic structure comprises a plurality of pressure communication channels between the suction-side surface and the pressure-side surface; a camber line connecting the leading-edge section and the trailing-edge section and lying halfway between the pressure-side surface and the suction-side surface, wherein the camber line of the aerodynamic structure is tilted toward the suction-side surface with respect to a camber line of the rest of the wind turbine rotor blade.

The invention relates to a process for the preparation of a melamine-formaldehyde resin composition comprising the steps of: a) Preparing a slurry of melamine in a solution of formaldehyde in water, b) adjusting pH of the slurry in a range between 8.3 and 10.5, c) Reacting the melamine and the formaldehyde in the slurry to form methylolated melamine at a first temperature between 90 and 120°C, d) when the slurry has become a water-clear solution, cooling to a second temperature between 70 and 90°C and holding at that second temperature for condensation of the methylolated melamine forming a melamine formaldehyde resin composition, e) cooling. The invention also relates to a melamine-formaldehyde resin composition obtainable by the process having a residual (free) melamine content below 3 wt.%, to curable melamine-formaldehyde resin composition comprising the melamine-formaldehyde resin composition and a catalyst and various uses thereof.

A razor blade (50) including a substrate (70) with a first portion (72) and a second portion (74). The first portion includes first and second generally parallel outer surfaces (72A, 72B). The second portion includes generally asymmetric first and second sections (76, 78) separated by a split line (SL₇₄). The first section (76) includes first and third facets (80, 84) and the second section (78) includes second and fourth facets (82, 86). The first and second facets (80, 82) are positioned between the first and second generally parallel outer surfaces and the third and fourth facets (84, 86). The split line (SL₇₄) passes through a tip (88) and is generally parallel with and extends between the first and second outer surfaces of the first portion. The second and fourth facets (82, 86) are located closer to the split line (SL₇₄) than the first and third facets (80, 84).