mhurhangee/ep-ind-claims huggingface dataset:
Electrical switching device, in particular a contactor, with a plug-in device, - wherein on the switching device at least one lead connection is provided for at least one lead, which lead connection is designed to be recessed in a housing opening in an access side, - between at least one pair of mounting elements provided on the one hand on the switching device and fixing elements (RE, 16, 19) provided on the other hand on the plug-in device a locking, releasable formfitting connection can be achieved, - the plug-in device comprises a plug contact connectable to the lead connection and at least one connection means connected electrically to the plug-in contact for at least one lead and - the at least one lead connection is designed as a switch contact support of the switching apparatus of the switching device accessible from the outside, wherein - the plug-in contact is designed for fitting onto the lead connection and the direction of effect of the mounting elements and the locking elements (RE, 16, 19) are in a line, characterised in that - the connection means is designed as a receiving terminal, - the pair of mounting elements is designed as a first undercut on the access side and as a second undercut on a side (A2') of the switching device perpendicular to the access side and - the second undercut is designed as an access opening for a clamping screw of the terminal clamp. - wherein on the switching device at least one lead connection is provided for at least one lead, which lead connection is designed to be recessed in a housing opening in an access side, - between at least one pair of mounting elements provided on the one hand on the switching device and fixing elements (RE, 16, 19) provided on the other hand on the plug-in device a locking, releasable formfitting connection can be achieved, - the plug-in device comprises a plug contact connectable to the lead connection and at least one connection means connected electrically to the plug-in contact for at least one lead and - the at least one lead connection is designed as a switch contact support of the switching apparatus of the switching device accessible from the outside, wherein - the plug-in contact is designed for fitting onto the lead connection and the direction of effect of the mounting elements and the locking elements (RE, 16, 19) are in a line, - the connection means is designed as a receiving terminal, - the pair of mounting elements is designed as a first undercut on the access side and as a second undercut on a side (A2') of the switching device perpendicular to the access side and - the second undercut is designed as an access opening for a clamping screw of the terminal clamp.
Method for generating image information from an object to be scanned by means of a scanning device, wherein the object to be scanned may comprise one or more surfaces, one or more members and/or a space, wherein the scanning device or at least portions of the scanning device or the object itself is/are moved during the scanning operation, wherein the object to be scanned is scanned by the scanning device in order to obtain two-dimensional image information, that is to say, with respect to colour, colour progressions and colour contrasts, and to obtain three-dimensional image information, that is to say, with respect to the relief or the height profile of the object, in the region of a scanning layer, wherein from the two and three-dimensional image information obtained using digital filters a two-dimensional display is calculated, and wherein when transferring to the two-dimensional display the three-dimensional image information is combined with the two-dimensional image information in such a manner that a realistic three-dimensional impression of the calculated two-dimensional display is achieved and wherein height information is preferably expressed with brightness values, characterised in that the beam path which scans the object is adjusted so as to be orientated at any angle with respect to the scanning layer, and/or in that the scanning layer is selected in any position with respect to the object to be scanned, wherein as a result of the free selection of the angle between the scanning beam path and the scanning layer there are produced imbricated part-images which are not located in a plane and which in particular are tilted with respect to the scanning layer, whereby the individual part-images have to be rectified so that they can be combined to form a common image, in that distortions which are brought about by the random angle between the scanning beam path and the scanning layer are rectified by means of a telecentric optical unit already during the scanning operation and/or by means of subsequent image processing, in that in order to calculate a correct physiological representation of the two-dimensional display additional digital filters are used and in that as a result of these digital filters a rectification or distortion of the shape is carried out, in particular using a low-pass filter, a band-pass filter, a high-pass filter or free filtering.
A method executed by a network node in a wireless communication system, the method comprising: receiving, from an application function, AF, via a network exposure function, NEF, user equipment, UE, radio capability information on UE radio capability identifier, ID, and on at least one UE radio capability mapping to the UE radio capability ID; receiving, from an access and mobility management function, AMF, a request for old UE radio capability information mapped to an old UE radio capability ID with an old version ID stored in the AMF; and transmitting, to the AMF, new UE radio capability information mapped to a new UE radio capability ID with a new version ID, wherein the new UE radio capability information with the new version ID is different from the old UE radio capability information with the old version ID stored in the AMF, wherein the network node is a UE radio capability management function, UCMF, that stores mappings of all UE radio capability IDs in a public land mobile network, PLMN, and assigns every PLMN-assigned UE radio capability ID in the PLMN. receiving, from an application function, AF, via a network exposure function, NEF, user equipment, UE, radio capability information on UE radio capability identifier, ID, and on at least one UE radio capability mapping to the UE radio capability ID; receiving, from an access and mobility management function, AMF, a request for old UE radio capability information mapped to an old UE radio capability ID with an old version ID stored in the AMF; and transmitting, to the AMF, new UE radio capability information mapped to a new UE radio capability ID with a new version ID, wherein the new UE radio capability information with the new version ID is different from the old UE radio capability information with the old version ID stored in the AMF, wherein the network node is a UE radio capability management function, UCMF, that stores mappings of all UE radio capability IDs in a public land mobile network, PLMN, and assigns every PLMN-assigned UE radio capability ID in the PLMN.
A composition comprising synthetic nanocarriers comprising: A - x - B; and a pharmaceutically acceptable excipient; wherein x comprises a cathepsin cleavage site comprising KVSVR; wherein A comprises a first MHC II binding peptide, and the first MHC II binding peptide comprising a peptide having at least 70%, 80% or 90% identity to: a natural HLA-DP binding peptide, a natural HLA-DQ binding peptide, or a natural HLA-DR binding peptide; wherein B comprises a second MHC II binding peptide, and the second MHC II binding peptide comprising a peptide having at least 70%, 80% or 90% identity to: a natural HLA-DP binding peptide, a natural HLA-DQ binding peptide, or a natural HLA-DR binding peptide, and wherein A and B do not have 100% identity to one another. a pharmaceutically acceptable excipient; wherein x comprises a cathepsin cleavage site comprising KVSVR; wherein A comprises a first MHC II binding peptide, and the first MHC II binding peptide comprising a peptide having at least 70%, 80% or 90% identity to: a natural HLA-DP binding peptide, a natural HLA-DQ binding peptide, or a natural HLA-DR binding peptide; wherein B comprises a second MHC II binding peptide, and the second MHC II binding peptide comprising a peptide having at least 70%, 80% or 90% identity to: a natural HLA-DP binding peptide, a natural HLA-DQ binding peptide, or a natural HLA-DR binding peptide, and wherein A and B do not have 100% identity to one another.
A driving device of a display device, comprising: a gate driving circuit configured to supply gate pulses to a gate line (GL1 to GLn) of the display device according to a voltage of a Q node; and a timing control circuit configured to generate a touch enable signal (VTEN) so as to divide one frame into a display period and a touch period, wherein the gate driving circuit comprises a transistor comprising a first source/drain terminal connected to the Q node, a second source/drain terminal connected to a discharge path of the Q node to suppress discharge of the Q node for a touch time, and a gate terminal, and wherein the driving device is configured to, during the touch period, apply a gate signal to the gate terminal of the transistor so as to turn off the transistor and apply a signal to the second source/drain terminal of the transistor having a voltage at least substantially equal to the voltage at the Q node. a gate driving circuit configured to supply gate pulses to a gate line (GL1 to GLn) of the display device according to a voltage of a Q node; and a timing control circuit configured to generate a touch enable signal (VTEN) so as to divide one frame into a display period and a touch period, wherein the gate driving circuit comprises a transistor comprising a first source/drain terminal connected to the Q node, a second source/drain terminal connected to a discharge path of the Q node to suppress discharge of the Q node for a touch time, and a gate terminal, and wherein the driving device is configured to, during the touch period, apply a gate signal to the gate terminal of the transistor so as to turn off the transistor and apply a signal to the second source/drain terminal of the transistor having a voltage at least substantially equal to the voltage at the Q node.
Rotor for a wind turbine, with a rotor hub, having at least one rotor blade mounted on the rotor hub so as to be rotatable about a blade axis, and at least one threaded spindle mechanism, which is positioned between the rotor hub and the rotor blade and is connected both to the rotor hub and to the rotor blade, wherein the rotor blade is or can be rotated relative to the rotor hub about the blade axis by actuating the threaded spindle mechanism, characterized in that the threaded spindle mechanism has a drive, an actuating element, a spindle nut detachably coupled to the actuating element, and a threaded spindle which can be rotated about the longitudinal axis thereof by means of the drive, and which is detachably coupled to the drive, such that the threaded spindle and the spindle nut can be separated from the threaded spindle mechanism.
A device for producing concrete blocks, in particular concrete paving slabs, having a mold for filling with a concrete mixture, wherein the mold has at least one mold cavity for receiving the concrete mixture, and wherein the upwardly open mold cavity has walls (13, 14, 15, 16) as lateral boundaries, and wherein the at least one mold cavity can be filled with the concrete mixture by means of a filling device of the device, and wherein the mold with the at least one mold cavity and the filling device are movable relative to one another in a filling axis, and wherein the filling axis is oriented obliquely to an axis of symmetry of the at least one mold cavity, with the result that preferably all the walls (13... 16) of the mold cavity extend neither perpendicularly nor parallel to the filling axis, but at an angle, characterized in that the or each mold cavity is rectangular in outline and has four walls (13... 16) which extend so as to be directed obliquely to the filling axis, or in that, with mold cavities which are square in outline, only the axes of symmetry which extend through the center points of the walls (13... 16) are oriented obliquely to the filling axis.
A method of forming a colored conductive ribbon for a solar module comprising: a) providing a ribbon holder including a channel configured to receive a conductive ribbon therein, b) securing the conductive ribbon in the channel of the ribbon holder, c) applying a color coating to at least the conductive ribbon secured within the channel, d) curing the color coating on the conductive ribbon, and e) separating the conductive ribbon from the channel of the ribbon holder. a) providing a ribbon holder including a channel configured to receive a conductive ribbon therein, b) securing the conductive ribbon in the channel of the ribbon holder, c) applying a color coating to at least the conductive ribbon secured within the channel, d) curing the color coating on the conductive ribbon, and e) separating the conductive ribbon from the channel of the ribbon holder.
A flexible plastic film comprising: a support substrate; and an ultraviolet curable coating layer formed on at least one surface of the support substrate, wherein the film exhibits a pencil hardness, as measured after moving the pencil back and forth three times at an angle of 45° under a load of 750 g using a pencil hardness tester in accordance with JIS K 5400-5-4, of 6 H or more under a load of 750 g, and when placing the film at an interval of 4 mm in the middle of the film, allowing the film to stand while both sides of the film being folded at 90 degrees toward the bottom surface at room temperature, and then spreading the film on a flat bottom surface, a height lifted from the bottom surface is 0.5 mm or less, as measured according to the bending stability test as disclosed in the specification, wherein the support substrate has an elastic modulus of 4 to 9 GPa as measured according to ASTM D882, wherein the support substrate has a thickness of 20 to 200 μm, wherein the ultraviolet curable coating layer includes a crosslinked copolymer of a 3- to 6-functional acrylate-based binder and a 7- to 20-functional urethane acrylate-based binder; and inorganic fine particles having a bimodal particle size distribution including a first inorganic fine particle group having d50 of 20 to 35nm and a second inorganic fine particle group having d50 of 40 to 130 nm. a support substrate; and an ultraviolet curable coating layer formed on at least one surface of the support substrate, wherein the film exhibits a pencil hardness, as measured after moving the pencil back and forth three times at an angle of 45° under a load of 750 g using a pencil hardness tester in accordance with JIS K 5400-5-4, of 6 H or more under a load of 750 g, and when placing the film at an interval of 4 mm in the middle of the film, allowing the film to stand while both sides of the film being folded at 90 degrees toward the bottom surface at room temperature, and then spreading the film on a flat bottom surface, a height lifted from the bottom surface is 0.5 mm or less, as measured according to the bending stability test as disclosed in the specification, wherein the support substrate has an elastic modulus of 4 to 9 GPa as measured according to ASTM D882, wherein the support substrate has a thickness of 20 to 200 μm, wherein the ultraviolet curable coating layer includes a crosslinked copolymer of a 3- to 6-functional acrylate-based binder and a 7- to 20-functional urethane acrylate-based binder; and inorganic fine particles having a bimodal particle size distribution including a first inorganic fine particle group having d50 of 20 to 35nm and a second inorganic fine particle group having d50 of 40 to 130 nm.
A dental curable composition comprising: a sugar compound having an -XM group, where -X is an acid anion group and M is a metal cation; and a curable component, wherein -X in the -XM group of the sugar compound is at least one acid anion group selected from the group consisting of: phosphorus atom-containing acid anion groups represented by -P(=O)(-O -) 2, -P(=O)(-OR)(-O -), -O-P(=O)(-O -) 2, and -O-P(=O)(-OR)(-O -), where R represents an alkyl group or an optionally substituted aromatic group; sulfur atom-containing acid anion groups represented by -SO 2 -, -SO 3 -, and -O-SO 3 -; and boron atom-containing acid anion groups represented by -B(O -) 2, -O-B(O -) 2, -B(-OR)(O -), and -O-B(-OR)(O -), where R represents an alkyl group or an optionally substituted aromatic group, M in the -XM group of the sugar compound is a calcium ion, a strontium ion, or an aluminum ion, and the curable component comprises a polymerizable monomer (a) having no acidic group and a polymerization initiator (b). -X in the -XM group of the sugar compound is at least one acid anion group selected from the group consisting of: phosphorus atom-containing acid anion groups represented by -P(=O)(-O -) 2, -P(=O)(-OR)(-O -), -O-P(=O)(-O -) 2, and -O-P(=O)(-OR)(-O -), where R represents an alkyl group or an optionally substituted aromatic group; sulfur atom-containing acid anion groups represented by -SO 2 -, -SO 3 -, and -O-SO 3 -; and boron atom-containing acid anion groups represented by -B(O -) 2, -O-B(O -) 2, -B(-OR)(O -), and -O-B(-OR)(O -), where R represents an alkyl group or an optionally substituted aromatic group, M in the -XM group of the sugar compound is a calcium ion, a strontium ion, or an aluminum ion, and the curable component comprises a polymerizable monomer (a) having no acidic group and a polymerization initiator (b).
A radioactive tyrosine derivative represented by the formula or a pharmaceutically acceptable salt thereof: wherein R 1 represents a group selected from the group consisting of -CH 2 18 F, and -CH 2 CH 2 CH 2 18 F.
A processor accessible library (100, 110) comprising control information for a multi-storied structure's heating, ventilation and air conditioning, HVAC, process, wherein said library (100, 110) comprises instructions which, when executed by the processor, causes the processor to carry out methods to identify optimized period for ventilation and/or heating and air conditioning, employing dynamic ventilation criteria, which are continuously updated, and wherein the library (100, 110) further contains external and internal HVAC parameters, wherein the ventilation parameters comprise: a second ventilation-associated parameter, related to the outside of the multi-storied structure; and a third ventilation-associated parameter, related to temporal ventilation history; wherein the second ventilation-associated parameter, comprise selectibly determined pollutants' concentration immediately outside the multi-storied structure, and an optimization objective is a weighted combination of multiple sub-goals for minimizing the pollution within the multi-storied enclosure, minimizing the energy requirements of the heating and air-conditioning process, and maintaining of fresh air supply to the building. a second ventilation-associated parameter, related to the outside of the multi-storied structure; and a third ventilation-associated parameter, related to temporal ventilation history; wherein the second ventilation-associated parameter, comprise selectibly determined pollutants' concentration immediately outside the multi-storied structure, and an optimization objective is a weighted combination of multiple sub-goals for minimizing the pollution within the multi-storied enclosure, minimizing the energy requirements of the heating and air-conditioning process, and maintaining of fresh air supply to the building.
Wind energy installation having a converter installation, an installation transformer, a wind rotor and a generator which is driven by said wind rotor and which interacts with the converter installation to generate electrical power which is emitted via a grid connection line, wherein a machine-side end of the converter installation is connected to the generator, and a grid-side end of the converter installation is connected to the installation transformer by way of the grid connection line, wherein the converter installation comprises at least two converters (30, 30*) which are connected in parallel, are interconnected in pairs and are controlled by a converter controller, characterized in that the converters (30, 30*) which are connected in parallel are each arranged in a dedicated line (20, 20*) of a line pair, and the converters (30, 30*) of the line pair are controlled with inverse polarity relative to one another.
A thermal pad (602,612,622,702,712) formed in a Printed Circuit Board, the thermal pad (602,612,622,702,712) comprising in its interior: one or more coins (604,614,624,704,714) arranged to receive a surface mounted device on top covering the one or more coins, each having a height equal to a thickness of the PCB, and being made of metal or alloy, inserted into a corresponding one of one or more plated cutouts straight through the PCB in the thermal pad (602,612,622,702,712), and bonded to side walls of the corresponding one of the one or more plated cutouts with a paste capable of resisting a temperature of 250°C or above; and a plurality of through vias (606,616,626,706,716), which are plated, and plugged with a solder mask, wherein the thermal pad (602,612,622,702,712) has a flat top surface and a flat bottom surface, either of which is coplanar with a corresponding one of top and bottom surfaces of the PCB. one or more coins (604,614,624,704,714) arranged to receive a surface mounted device on top covering the one or more coins, each having a height equal to a thickness of the PCB, and being made of metal or alloy, inserted into a corresponding one of one or more plated cutouts straight through the PCB in the thermal pad (602,612,622,702,712), and bonded to side walls of the corresponding one of the one or more plated cutouts with a paste capable of resisting a temperature of 250°C or above; and a plurality of through vias (606,616,626,706,716), which are plated, and plugged with a solder mask, wherein the thermal pad (602,612,622,702,712) has a flat top surface and a flat bottom surface, either of which is coplanar with a corresponding one of top and bottom surfaces of the PCB.
A phthalazinedione for use in a method of treating intestinal diseases related to oxidative stress in a subject infected with HIV-AIDS comprising, administering a therapeutically effective amount of a phthalazinedione to the subject having an intestinal environment with an imbalanced redox state such that the oxidative stress related to the intestinal disease is modulated, wherein the modulation of oxidative stress further prevents glaucoma, which is caused by oxidative stress originating in the intestinal environment.
A die casting machine comprising a bed, and a first fixed plate extending upwards from it, and a moving plate guided on the bed and moving horizontally to the first fixed plate, wherein the first fixed plate holds some horizontal columns which cross the moving plate, the first fixed plate and the moving plate hold two parts of a shaping mould which open and close each with regards to the other in response to the movements of the moving plate away from and towards the first fixed plate, and on an external face of said first fixed plate is positioned an injection unit of melted metal into the mould when it is closed, and wherein hydraulic axial thrust devices (18,19) and mechanical radial clamping devices are placed around each of said horizontal columns and are associated with the moving plate and used to position and tightly clamp said moving plate in the mould closed position said machine being characterized in that in said moving plate and around each horizontal column is provided a chamber suitable to be fed by a fluid under pressure and housing a piston also placed around the column and acting so as to move the moving plate axially between a closing and opening position of the mould.