mhurhangee/ep-ind-claims huggingface dataset:
A system for encoding and decoding video sequences comprising: a motion estimation unit comprising a first memory to store a candidate video block to be encoded; a second memory to store a set of video data blocks from which to encode the candidate video block; and a differential calculator to calculate differential metrics between the candidate video block and the set of video blocks; a programmable video direct memory access (VDMA) controller to access the storage units of a video memory, the first memory and the second memory, in response to a single command specifying a rectangular block of video data, the video memory having linearly addressable storage units to store video data, wherein the VDMA controller fetches from the memories an entire block of video data having multiple non-contiguous rows in response to the single command; a digital signal processor adapted to instruct the programmable VDMA controller to transfer data to and from the memories (15, 60, 62); instruct the motion estimation unit to calculate the differential metrics using the transferred data; and perform video sequence encoding; and a processor adapted to coordinate the motion estimation unit, the programmable VDMA controller and the digital signal processor; and wherein the processor is adapted to issue commands to the VDMA controller via a first bus and the digital signal processor is adapted to issue commands to the VDMA controller via a second bus. a motion estimation unit comprising a first memory to store a candidate video block to be encoded; a second memory to store a set of video data blocks from which to encode the candidate video block; and a differential calculator to calculate differential metrics between the candidate video block and the set of video blocks; a first memory to store a candidate video block to be encoded; a second memory to store a set of video data blocks from which to encode the candidate video block; and a differential calculator to calculate differential metrics between the candidate video block and the set of video blocks; a programmable video direct memory access (VDMA) controller to access the storage units of a video memory, the first memory and the second memory, in response to a single command specifying a rectangular block of video data, the video memory having linearly addressable storage units to store video data, wherein the VDMA controller fetches from the memories an entire block of video data having multiple non-contiguous rows in response to the single command; a digital signal processor adapted to instruct the programmable VDMA controller to transfer data to and from the memories (15, 60, 62); instruct the motion estimation unit to calculate the differential metrics using the transferred data; and perform video sequence encoding; and instruct the programmable VDMA controller to transfer data to and from the memories (15, 60, 62); instruct the motion estimation unit to calculate the differential metrics using the transferred data; and perform video sequence encoding; and a processor adapted to coordinate the motion estimation unit, the programmable VDMA controller and the digital signal processor; and
A method of protecting a non-emulated computer system from malware, which malware attempts to prevent detection or analysis when executed in an emulated computer system, the method comprising: determining if an executable file should be identified as being legitimate; and if not, executing, whilst providing indications to the executable file that it is being executed within an emulated computer system, the executable file in an emulated computer system or in the non-emulated computer system; and monitoring the behaviour of the executable file to determine if the executable file responds to detection of said indications by displaying anti-emulation behaviour during its execution, and, if so, determining that the executable file may be malware. determining if an executable file should be identified as being legitimate; and if not, executing, whilst providing indications to the executable file that it is being executed within an emulated computer system, the executable file in an emulated computer system or in the non-emulated computer system; and monitoring the behaviour of the executable file to determine if the executable file responds to detection of said indications by displaying anti-emulation behaviour during its execution, and, if so, determining that the executable file may be malware.
A bodiless bone fusion device for insertion into a desired location comprising: an extending mechanism including one or more extending blocks mechanically coupled with a positioning element such that rotation of the positioning element causes the blocks to move with respect to the positioning element; and a pair of plates straddling the extending mechanism and mechanically coupled with the extending blocks such that when the extending blocks move with respect to the positioning element, the plates move along a path with respect to each other between a retracted position in which the plates are adjacent to each other to an extended positioned in which the plates are spread apart from each other, wherein the plates are sized such that at least a portion of the perimeter of the plates about the path align with the outermost perimeter of the device about the path.; characterized in that the device comprises a locking mechanism coupled with the positioning element and configured to physically bias the rotational orientation of the positioning element into one of a plurality of positions. an extending mechanism including one or more extending blocks mechanically coupled with a positioning element such that rotation of the positioning element causes the blocks to move with respect to the positioning element; and a pair of plates straddling the extending mechanism and mechanically coupled with the extending blocks such that when the extending blocks move with respect to the positioning element, the plates move along a path with respect to each other between a retracted position in which the plates are adjacent to each other to an extended positioned in which the plates are spread apart from each other, wherein the plates are sized such that at least a portion of the perimeter of the plates about the path align with the outermost perimeter of the device about the path.; characterized in that the device comprises a locking mechanism coupled with the positioning element and configured to physically bias the rotational orientation of the positioning element into one of a plurality of positions.
A robotic mower comprising: a chassis; a cutting motor driving at least one cutting blade; and a height adjustment assembly including a height adjustment motor configured to adjust a height of a motor bracket via rotation of a height adjustment screw driven by the height adjustment motor, the motor bracket providing structural support for the cutting motor at an adjustable level relative to the chassis, wherein the height adjustment assembly further comprises a screw engagement nut operably coupled to the motor bracket, the screw engagement nut having teeth configured to engage threads of the height adjustment screw and, responsive to rotation of the height adjustment screw, move up or down along a length of the height adjustment screw. a chassis; a cutting motor driving at least one cutting blade; and a height adjustment assembly including a height adjustment motor configured to adjust a height of a motor bracket via rotation of a height adjustment screw driven by the height adjustment motor, the motor bracket providing structural support for the cutting motor at an adjustable level relative to the chassis, wherein the height adjustment assembly further comprises a screw engagement nut operably coupled to the motor bracket, the screw engagement nut having teeth configured to engage threads of the height adjustment screw and, responsive to rotation of the height adjustment screw, move up or down along a length of the height adjustment screw.
Process for preparing isobutene by catalytic gas phase cleavage of methyl tert-butyl ether to isobutene and methanol at a temperature of 110 to 450 °C and a pressure of 0.1 to 2 MPa, characterized in that the catalyst used in the gas phase cleavage is a catalyst having, in a formal sense, • a proportion of alkali metal and alkaline earth metal oxides of 0.5% to 20% by mass, • a proportion of aluminium oxide of 4% to 30% by mass, • and a proportion of silicon dioxide of 60% to 95% by mass; wherein the catalyst contains magnesium oxide as the sole alkaline earth metal oxide; wherein the catalyst includes, as well as the alkaline earth metal oxide, an alkali metal oxide selected from Na 2 O and K 2 O; wherein the catalyst is produced by a process having the steps of a) treating an aluminosilicate with an aqueous magnesium salt solution under acidic conditions and b) calcining the aluminosilicate which has been treated with aqueous magnesium salt solution, in which a step c) in which the treated aluminosilicate is dried is conducted between steps a) and b), and wherein the catalyst is obtained by, in process step a), mixing an aluminosilicate powder, binder, optionally lubricant and acidic aqueous magnesium salt solution, and pelletizing the aluminosilicate powder thus treated to micropellets and drying the resultant moist pellets in process step c) and then calcining them in a gas stream in process step b), then mixing the resultant pellets with a lubricant, for example graphite, if this has not already been done in process step a), and then tabletting them and then post-calcining the tablets. • a proportion of alkali metal and alkaline earth metal oxides of 0.5% to 20% by mass, • a proportion of aluminium oxide of 4% to 30% by mass, • and a proportion of silicon dioxide of 60% to 95% by mass; a) treating an aluminosilicate with an aqueous magnesium salt solution under acidic conditions and b) calcining the aluminosilicate which has been treated with aqueous magnesium salt solution,
A radially-directed spark igniter comprising: a plurality of electrodes and an insulator, which are configured to form a body having an outer surface; wherein the plurality of electrodes comprises: a center electrode having an end, wherein at least a portion of the center electrode forms at least part of the outer surface of the body; and a shell electrode having an inner surface and an end, wherein at least a portion of the shell electrode forms at least part of the outer surface of the body; wherein the insulator is positioned between the center electrode and the shell electrode, wherein at least a portion of the insulator is uncovered by the center electrode and the shell electrode such that a spark gap is formed from a first edge of the center electrode and a second edge of the shell electrode; wherein the spark gap is located on a radial facing surface of the spark igniter and at least one of the ends forms at least one of the first edge and the second edge of the spark gap, wherein at least a portion of at least one end does not contact the insulator; and a depth of the spark gap is measured from the uncovered portion of the insulator to the outer surface of the body, wherein the depth is less than 8% of the outer surface perimeter of the body. a plurality of electrodes and an insulator, which are configured to form a body having an outer surface; wherein the plurality of electrodes comprises: a center electrode having an end, wherein at least a portion of the center electrode forms at least part of the outer surface of the body; and a shell electrode having an inner surface and an end, wherein at least a portion of the shell electrode forms at least part of the outer surface of the body; a center electrode having an end, wherein at least a portion of the center electrode forms at least part of the outer surface of the body; and a shell electrode having an inner surface and an end, wherein at least a portion of the shell electrode forms at least part of the outer surface of the body; wherein the insulator is positioned between the center electrode and the shell electrode, wherein at least a portion of the insulator is uncovered by the center electrode and the shell electrode such that a spark gap is formed from a first edge of the center electrode and a second edge of the shell electrode; wherein the spark gap is located on a radial facing surface of the spark igniter and at least one of the ends forms at least one of the first edge and the second edge of the spark gap, wherein at least a portion of at least one end does not contact the insulator; and a depth of the spark gap is measured from the uncovered portion of the insulator to the outer surface of the body, wherein the depth is less than 8% of the outer surface perimeter of the body.
A switchgear comprising a circuit breaking section having a movable contact bridging element and at least one first arc chute adjacent the contact bridging element, each arc chute (18, 20) comprising a base plate (BP1A, BP1B) for connecting to the contact bridging element and a group of splitter plates (SP1A, SP2A, SP3A, SP4A, SP1B, SP2B, SP3B, SP4B) placed adjacent the base plate (BP1A, BP1B), where the splitter plates of the groups are separated from the base plate and each other via air gaps and resistors (RA1, RA2, RA3, RA4, RB1, RB2, RB3, RB4) interconnect at least some of the plates in at least a first of the arc chutes for bypassing corresponding air gaps, characterized in that all the plates in the first arc chute except for an uppermost splitter plate (SP4A) are interconnected by resistors, which resistors have values in the range 5 kΩ - 1 MΩ, current ratings below 100 mA and power ratings below 1 W.
Method for the combined generation of mechanical power and production of hydrocarbons, in which in order to generate the mechanical power at least one internal combustion engine is fired up, thereby producing a combustion exhaust gas (c), and in which in order to produce the hydrocarbons at least one reactor is heated using a fuel (e) and a combustion-supporting gas (d), characterized in that at least part of the combustion-supporting gas (d) is heated by indirect heat exchange with at least part of the combustion exhaust gas (c) from the internal combustion engine.
A recombinant adeno-associated virus (rAAV), said rAAV comprising an AAV capsid and a vector genome packaged therein, said vector genome comprising: a. an AAV 5'-inverted terminal repeat sequence; b. a promoter sequence; c. a nucleic acid sequence encoding a truncated human copper-transporting ATPase 2 (ATP7B) having the amino acid sequence set forth in SEQ ID NO: 8, wherein said truncated ATP7B lacks the metal-binding domains (MBDs) 1-3; and d. an AAV 3'-ITR sequence. a. an AAV 5'-inverted terminal repeat sequence; b. a promoter sequence; c. a nucleic acid sequence encoding a truncated human copper-transporting ATPase 2 (ATP7B) having the amino acid sequence set forth in SEQ ID NO: 8, wherein said truncated ATP7B lacks the metal-binding domains (MBDs) 1-3; and d. an AAV 3'-ITR sequence.
Method for producing a core which can be excited magnetically and has a core winding for an electrical machine, according to which, in a method step, the one core is produced which essentially has a cuboid shape with slots running parallel on one side and in whose slots, in a method step, the winding sides of the core winding are inserted and then, in a method step, the core together with the core winding is formed into a cylindrical annular shape with slots pointing radially inwards, characterized in that all the winding sides, which are inserted into a respective slot, are each pressed and formed in a tool into a slot shape before being inserted into the slot.
An isolated nucleic acid molecule encoding a modified glucose-6-phosphatase-a (G6Pase-a), wherein the amino acid sequence of the modified G6Pase-a is set forth as SEQ ID NO: 2 and comprises a serine to cysteine substitution at amino acid 298.
An apparatus comprising: a wireless alarm sensor that detects a threat within a secured geographic area; a cloud application that monitors the wireless alarm sensor and reports the threat detected by the wireless alarm sensor within the secured geographic area to a human user of associated with the secured geographic area; and a wireless publically accessible communication system defined by a plurality of low power communication devices and a local base station, wherein the wireless publically accessible communication system comprises a low power wide area network (LPWAN), wherein, upon the wireless alarm sensor detecting the threat within the secured geographic area, the wireless alarm sensor searches for one of the plurality of low power communication devices, wherein the wireless alarm sensor detects the one of the plurality of low power communication devices and wirelessly connects to the cloud application through the one of the plurality of low power communication devices and the local base station, and wherein the LPWAN uses any technology from a group consisting of Semtech, LoRa, Cellular Modules designed for machine-to-machine applications, Weightless, Sigfox, POPS, and Air Lynx. a wireless alarm sensor that detects a threat within a secured geographic area; a cloud application that monitors the wireless alarm sensor and reports the threat detected by the wireless alarm sensor within the secured geographic area to a human user of associated with the secured geographic area; and a wireless publically accessible communication system defined by a plurality of low power communication devices and a local base station, wherein the wireless publically accessible communication system comprises a low power wide area network (LPWAN), wherein, upon the wireless alarm sensor detecting the threat within the secured geographic area, the wireless alarm sensor searches for one of the plurality of low power communication devices, wherein the wireless alarm sensor detects the one of the plurality of low power communication devices and wirelessly connects to the cloud application through the one of the plurality of low power communication devices and the local base station, and wherein the LPWAN uses any technology from a group consisting of Semtech, LoRa, Cellular Modules designed for machine-to-machine applications, Weightless, Sigfox, POPS, and Air Lynx.
An element of a fluid transport circuit, which element comprises a tubular body externally provided with an annular shoulder in which a groove is provided that has an end wall (6.1) flanked by an outer side (6.2) and by an inner side (6.3) so as to receive an annular seal designed to bear against a surface surrounding an inlet orifice of a channel of a member to which the element is designed to be coupled, in which the body defines at least one passage for bringing the fluid into the groove in such a manner as to push the seal back against the outer surface of the groove, and against the surface surrounding the inlet orifice of the channel, said element being characterized in that an insertable portion (1.1) that is insertable into the channel in the member extends projecting relative to the shoulder (5and in that the passage comprises at least one furrow extending axially over at least a fraction of the insertable portion (1.1) of the inner side (6.3) and of the end wall (6.1) of the groove.
Scrubbing solution for removal of acidic gas components from industrial gases, wherein the gas stream is contacted with a liquid absorption medium in a suitable scrubbing apparatus, characterized in that (i) the liquid absorption medium consists of an aqueous ammonia solution and at least one amine and (ii) the amine contains no hydroxyalkyl substituents in the molecule, wherein the solution has an amine concentration of 0.1 to 20 mass percent and an ammonia concentration of 10 to 25 mass percent. (i) the liquid absorption medium consists of an aqueous ammonia solution and at least one amine and (ii) the amine contains no hydroxyalkyl substituents in the molecule,
A satellite propulsion system for a satellite comprising: - at least one tank containing a propulsion reagent, and - at least one tank containing a propulsion gas that pressurizes the propulsion reagent, - at least one transport means for transporting the propulsion gas from the propulsion gas tank to the propulsion reagent tank, characterized in that the transport means comprises at least one opening that allows for the propulsion gas to leak off continuously, and - at least one device that is adapted to, after the satellite has entered operational orbit, isolate a zone comprising the opening from the rest of the propulsion system. - at least one tank containing a propulsion reagent, and - at least one tank containing a propulsion gas that pressurizes the propulsion reagent, - at least one transport means for transporting the propulsion gas from the propulsion gas tank to the propulsion reagent tank, characterized in that the transport means comprises at least one opening that allows for the propulsion gas to leak off continuously, and - at least one device that is adapted to, after the satellite has entered operational orbit, isolate a zone comprising the opening from the rest of the propulsion system.
Method of obtaining a composition for influencing or modifying (a) growth of human hair and/or (b) pigmentation of human hair and/or (c) pigmentation of human skin and/or (d) level of CE protein components such as filaggrin and/or involucrin comprising the step of extracting viable, freeze-dried or dried cells of Tetraselmis sp., preferably Tetraselmis suecica, with a liquid extractant selected from the group consisting of hexane, ethyl acetate, ethanol, methanol, isopropanol and mixtures of two or more of these extractants, and optionally adjusting the phototoxicity of the composition to a phototoxicity index of less than 5, wherein the extraction comprises a) exposition of the cell material to the extractant for 1 to 24h at a temperature of not more than 50°C, and b) removal of the cell material to obtain an extract, the extract being the composition or being further processed into the composition, and wherein the extraction is performed in the dark. (a) growth of human hair and/or (b) pigmentation of human hair and/or (c) pigmentation of human skin and/or (d) level of CE protein components such as filaggrin and/or involucrin
Registration method for a not yet registered slave (New1, New2, New3, New4) in a bus system (9, 10) comprising a master (M1, M2), wherein a list of slaves (SL1, SL2, SL3) already registered for the bus communication is held ready in the master (M1, M2), the master (M1, M2) sends master calls to the already registered slaves (SL1, SL2, SL3) via a bus of the bus system (9, 10) and each already registered slave (SL1, SL2, SL3) sends via the bus a slave response to a master call directed to it, wherein in the chronological order of the master calls and the slave responses time windows are kept free by the master (M1, M2) and the registered slaves (SL1, SL2, SL3), characterised in that the not yet registered slave (New1, New2, New3, New4) sends via the bus in the time windows in each case an arbitration element of an arbitration sequence, so that the arbitration sequence is divided into two or more arbitration elements and these arbitration elements are sent individually in the time windows spaced in time with respect to one another, and the master (M1, M2) enters the not yet registered slave (New1, New2, New3, New4) in the list as registered slave (SL1, SL2, SL3) if the not yet registered slave (New1, New2, New3, New4) has successfully sent its arbitration sequence completely.