Abstract: A method of verifying a program code of a synthesis computer program is disclosed. The synthesis computer program is configured for computer-controlling an automatic synthesizer (114) to automatically synthesize at least one oligonucleotide, the synthesis computer program having a plurality of program cycles for computer-controlling the automatic synthesizer (114) to sequentially synthesize the oligonucleotide by using at least one sequence of synthesis cycles. The method comprises: i. applying an automatic parsing procedure to the program code of the synthesis computer program, the automatic parsing procedure comprising automatically searching for parameter values of parameters of at least one predetermined list of parameters of interest in the program cycles of the synthesis computer program; and ii.

Abstract: The invention relates to a novel process for the production of a linear P-linked oligonucleotide which comprises the removal of the acid labile 5?hydroxy protecting group at the 5?-O oligonucleotide with a detritylation solution comprising acetonitrile. The process allows to produce oligonucleotides with low content of depurination and N?1 impurities.

Abstract: A machine produces an adhesively bonded book block. The machine has a clamp chain equipped with spaced apart binder clamps, which are connected to a clamp opening system. The clamp opening system has a movable internal aid for a binder clamp and an external aid, which are operably connected together. The aids open clamping jaws of the binder clamp. At a loading location for the book block, the external aid is operated by a drive to execute pressing operation on the movable internal aid. The moveable internal aid achieves an opening of the clamping jaws depending on a thickness of the book block. A recoil force is established with the drive-related pressing operation, which is converted as a pressing force onto the book block in a running cycle.

Abstract: A machine produces an adhesively bonded book block. The machine has a clamp chain equipped with spaced apart binder clamps, which are connected to a clamp opening system. The clamp opening system has a movable internal aid for a binder clamp and an external aid, which are operably connected together. The aids open clamping jaws of the binder clamp. At a loading location for the book block, the external aid is operated by a drive to execute pressing operation on the movable internal aid. The moveable internal aid achieves an opening of the clamping jaws depending on a thickness of the book block. A recoil force is established with the drive-related pressing operation, which is converted as a pressing force onto the book block in a running cycle.

Abstract: The invention relates to a method for recycling lithium-ion batteries which have at least one cathode and an anode and the cathode is made of a base material and an active material arranged thereon.

Abstract: Certain embodiments include a computer-implemented method that includes receiving image data corresponding to a three-dimensional (3D) parametric model, receiving a selection of a scope of the 3D model, receiving a selection of one or more base lines for the scope, determining a slip type for the scope, calculating planes of the scope, calculating candidate dimension lines, selecting a dimension line of the candidate dimension lines based on dimension line placement rules, and displaying the selected dimension line adjacent to the scope that correspond to the selected one or more base lines. The calculated planes of the scope can be based on the one or more base lines and the slip type. The calculated candidate lines can be based on the calculated planes and dimension line placement guidelines.

Abstract: Embodiments of the invention include a method inserting a new face in a polygonal mesh comprising receiving an input corresponding to: a polygonal mesh having a plurality of faces, a selection of a face (fm) of the plurality of faces, a direction vector (d), a modified target plane (pm), and a threshold angle ?. For each edge (e) of the selected face fm, the method further includes determining each adjacent face (fadj) to selected face fm, and inserting a new face at edge e if no adjacent face exists or if fadj is substantially parallel to pm and within threshold ?. In some embodiments, the new face has a normal orthogonal to e and d.

Abstract: For generating a 3D geometric model (44) and/or a definition of the 3D geometric model from a single digital image of a building facade (4), a facade structure is detected from the digital image by dividing the facade (4) along horizontal lines into horizontal layers representative of floors (41), and by dividing the horizontal layers along vertical lines into tiles (42). The tiles (42) are further subdivided into a hierarchy of rectangular image regions (43). 3D architectural objects (45) corresponding to the image regions (43) are determined in an architectural element library. The 3D geometric model (44) or the definition of the 3D geometric model is generated based on the facade structure, the hierarchy and the 3D architectural objects (45). The library-based generation of the 3D geometric model makes it possible to enhance simple textured building models constructed from aerial images and/or ground-based photographs.

Abstract: Embodiments of the invention include a method inserting a new face in a polygonal mesh comprising receiving an input corresponding to: a polygonal mesh having a plurality of faces, a selection of a face (fm) of the plurality of faces, a direction vector (d), a modified target plane (pm), and a threshold angle ?. For each edge (e) of the selected face fm, the method further includes determining each adjacent face (fadj) to selected face fm, and inserting a new face at edge e if no adjacent face exists or if fadj is substantially parallel to pm and within threshold ?. In some embodiments, the new face has a normal orthogonal to e and d.

Abstract: Embodiments of the invention include a method inserting a new face in a polygonal mesh comprising receiving an input corresponding to: a polygonal mesh having a plurality of faces, a selection of a face (fm) of the plurality of faces, a direction vector (d), a modified target plane (pm), and a threshold angle ?. For each edge (e) of the selected face fm, the method further includes determining each adjacent face (fadj) to selected face fm, and inserting a new face at edge e if no adjacent face exists or if fadj is substantially parallel to pm and within threshold ?. In some embodiments, the new face has a normal orthogonal to e and d.

Abstract: Certain embodiments include a computer-implemented method that includes receiving image data corresponding to a three-dimensional (3D) parametric model, receiving a selection of a scope of the 3D model, receiving a selection of one or more base lines for the scope, determining a slip type for the scope, calculating planes of the scope, calculating candidate dimension lines, selecting a dimension line of the candidate dimension lines based on dimension line placement rules, and displaying the selected dimension line adjacent to the scope that correspond to the selected one or more base lines. The calculated planes of the scope can be based on the one or more base lines and the slip type. The calculated candidate lines can be based on the calculated planes and dimension line placement guidelines.

Abstract: For generating a 3D geometric model (44) and/or a definition of the 3D geometric model from a single digital image of a building facade (4), a facade structure is detected from the digital image by dividing the facade (4) along horizontal lines into horizontal layers representative of floors (41), and by dividing the horizontal layers along vertical lines into tiles (42). The tiles (42) are further subdivided into a hierarchy of rectangular image regions (43). 3D architectural objects (45) corresponding to the image regions (43) are determined in an architectural element library. The 3D geometric model (44) or the definition of the 3D geometric model is generated based on the facade structure, the hierarchy and the 3D architectural objects (45). The library-based generation of the 3D geometric model makes it possible to enhance simple textured building models constructed from aerial images and/or ground-based photographs.

Abstract: Embodiments of the invention include a method inserting a new face in a polygonal mesh comprising receiving an input corresponding to: a polygonal mesh having a plurality of faces, a selection of a face (fm) of the plurality of faces, a direction vector (d), a modified target plane (pm), and a threshold angle ?. For each edge (e) of the selected face fm, the method further includes determining each adjacent face (fadj) to selected face fm, and inserting a new face at edge e if no adjacent face exists or if fadj is substantially parallel to pm and within threshold ?. In some embodiments, the new face has a normal orthogonal to e and d.

Abstract: An apparatus to separate out printed products from a stack including a pushing device to separate out a respective printed product from the stack. The pushing device includes a first rotary drive. The apparatus further includes a downstream-arranged removal device to convey away the respective separated out printed product. The removal device also includes a second rotary drive separate from the first rotary drive.

Abstract: An apparatus to separate out printed products from a stack including a pushing device to separate out a respective printed product from the stack. The pushing device includes a first rotary drive. The apparatus further includes a downstream-arranged removal device to convey away the respective separated out printed product. The removal device also includes a second rotary drive separate from the first rotary drive.

Abstract: For generating a 3D geometric model (44) and/or a definition of the 3D geometric model from a single digital image of a building facade (4), a facade structure is detected from the digital image by dividing the facade (4) along horizontal lines into horizontal layers representative of floors (41), and by dividing the horizontal layers along vertical lines into tiles (42). The tiles (42) are further subdivided into a hierarchy of rectangular image regions (43). 3D architectural objects (45) corresponding to the image regions (43) are determined in an architectural element library. The 3D geometric model (44) or the definition of the 3D geometric model is generated based on the facade structure, the hierarchy and the 3D architectural objects (45). The library-based generation of the 3D geometric model makes it possible to enhance simple textured building models constructed from aerial images and/or ground-based photographs.