Abstract: Method to prepare a catalyst for use in a process for the synthesis of methanol, comprising indium oxide in the form of In2O3, and at least one additional metal selected from a noble metal; and in that the average particle size of said noble metal phase is, preferably at least 0.05 nm, and less than 5 nm as determined by STEM-EDX, characterized in that the catalyst is prepared by co-precipitation of a saline solution at a pH above 8.5 comprising an indium salt and a salt of the at least one additional metal selected from a noble metal and optionally further comprising a salt of the at least one alkaline earth metal.

Abstract: Embodiments according to the first aspect of the invention comprise a data communication apparatus, e.g. a gNB or a base station, for transmitting unicast data to one or more other data communication apparatuses, e.g. to one or more UEs, and for transmitting shared data, e.g. multicast data or broadcast data, to a plurality of other data communication apparatuses, e.g. to a plurality of UEs, e.g. within a frame comprising a two-dimensional grid of transmission resource element positions. Furthermore, the data communication apparatus is configured to transmit unicast data and shared data using a common transmission resource element, e.g. OFDM (Orthogonal Frequency-Division Multiplexing) subcarrier or e.g. OFDM symbol, time-frequency grid, e.g. using a common subcarrier spacing and/or using a common slot length and/or using a common OFDM symbol length.

Abstract: Supported catalyst for use in a process for the synthesis of methanol, characterized in that the supported catalyst comprises indium oxide in the form of In2O3 and at least one noble metal being palladium, Pd, wherein both indium oxide and at least one noble metal are deposited on a support remarkable in that the supported catalyst is a calcined supported catalyst comprising from 0.01 to 10.0 wt. % of palladium and zirconium dioxide (ZrO2) in an amount of at least 50 wt. % on the total weight of said supported catalyst.

Abstract: Method to prepare a catalyst for use in a process for the synthesis of methanol, comprising indium oxide in the form of In2O3, and at least one additional metal selected from a noble metal; and in that the average particle size of said noble metal phase is, preferably at least 0.05 nm, and less than 5 nm as determined by STEM-EDX, characterized in that the catalyst is prepared by co-precipitation of a saline solution at a pH above 8.5 comprising an indium salt and a salt of the at least one additional metal selected from a noble metal and optionally further comprising a salt of the at least one alkaline earth metal.

Abstract: Supported catalyst for use in a process for the synthesis of methanol, characterized in that the supported catalyst comprises indium oxide in the form of In2O3 and at least one noble metal being palladium, Pd, wherein both indium oxide and at least one noble metal are deposited on a support remarkable in that the supported catalyst is a calcined supported catalyst comprising from 0.01 to 10.0 wt. % of palladium and zirconium dioxide (ZrO2) in an amount of at least 50 wt. % on the total weight of said supported catalyst.

Abstract: A circuit adapted to generate a high speed shaped pulse comprising an input adapted to receive a data signal and a control signal. A plurality of logic elements are configures to receive the data signal and the control signal and generate a plurality of output signals representative of the shaped pulse. A digital to analog converter is adapted to receive the plurality of output signals and generate a shaped pulse.

Abstract: A circuit adapted to generate a high speed shaped pulse comprising an input adapted to receive a data signal and a control signal. A plurality of logic elements are configures to receive the data signal and the control signal and generate a plurality of output signals representative of the shaped pulse. A digital to analog converter is adapted to receive the plurality of output signals and generate a shaped pulse.

Abstract: What is described is a method of applying optically readable code marks (14) to the surface of bottles (10) of plastics material or glass by producing depressions in the surface by means of a laser (12) in such a manner that the bottom of each code mark (14) is constructed in the form of a diffusely scattering reflector. A sensor (16) constructed from optical fibres with emitting optical fibres disposed centrally and receiving optical fibres arranged radially is used for the automatic reading of the code marks. The sensor forms an angle of less than 90.degree. with the surface of the bottle so that light is only reflected into the sensor at places on the surface where there are code marks (14). The code marks (14) are easy to apply and can be read reliably.

Abstract: A resistance seam welding machine is described, particularly for the longitudinal seam welding of can bodies, wherein, in the secondary loop (16), feed and return lines are constructed partially as a double line (18, 28) and in all the remaining portion (18a, 18b, 18c, 20, 24, 26) in the form of a substantially coaxial line. The voltage loss occurring in the secondary loop (16) between welding transformer (14) and welding position (8, 10) and the heat due to energy losses in the machine parts adjacent to the secondary loop are considerably reduced as a result of this construction of the feed return lines.

Abstract: A device for applying a protective coating to the weld or solder seam of a can body has an application roller (2) serving to apply a coating material inside a region covering the seam at the inside (15) of the can body. The roller periphery has a cross-sectional profile (5) comprising at least one depression (10) in a middle region (9) of a middle portion (6) having a region width of less than 60% of the width of the middle portion (6). The profile (5) further comprises at least one salient point and/or at least two points of inflection in this middle region (9). The device renders it possible to achieve optimum layer thicknesses of the coating over the seam, which are neither too little for the stresses occurring during the long-term storage of corrosive liquids nor too great for the tearing strength stressing of the coating which occurs during the flanging over of the edges of the can body.