mhurhangee/ep-ind-claims huggingface dataset:
A turbine blade for a gas turbine engine, comprising a pressure side, a suction side and a tip surface, a cooling slot located on the tip surface of the turbine blade, the cooling slot being defined by a plurality of diffuser portions each extending from a respective one of a plurality of cooling openings providing cooling fluid to the cooling slot, wherein each of the plurality of diffuser portions merges with another one of the plurality of diffuser portions below the surface of the blade tip and each of the plurality of diffuser portions are defined by a diffuser angle with respect to said respective one of the cooling openings.
A computer-implemented method for accelerating an execution of an expression in a computing environment, the method comprising: - obtaining an expression including at least one array to which one of an elementwise operator or an elementwise function is applied; - attaching a weight to the elementwise operator or the elementwise function, the weight indicating a required number of elements that are required in the at least one array to compute the expression in parallel, and - determining whether the expression is to be executed in parallel based on the weight of the operator or function in the expression and the actual number of elements in the array; and - if it is determined to execute the expression in parallel, generating code for computing the expression in parallel, wherein the expression is computed with a subset of the elements of the array in parallel with one or more additional subsets of the elements of the array. - obtaining an expression including at least one array to which one of an elementwise operator or an elementwise function is applied; - attaching a weight to the elementwise operator or the elementwise function, the weight indicating a required number of elements that are required in the at least one array to compute the expression in parallel, and - determining whether the expression is to be executed in parallel based on the weight of the operator or function in the expression and the actual number of elements in the array; and - if it is determined to execute the expression in parallel, generating code for computing the expression in parallel, wherein the expression is computed with a subset of the elements of the array in parallel with one or more additional subsets of the elements of the array.
An interlocking cable cleat for securing at least one cable to a ladder rack, the interlocking cable cleat comprising: a first cable cleat half having an outer surface, an inner surface, and at least one mounting hole extending from the outer surface to the inner surface; a second cable cleat half having an outer surface, an inner surface, and at least one mounting hole extending from the outer surface to the inner surface; and semi-circular keys extending from the inner surface of the first cable cleat half and the inner surface of the second cable cleat half, each semi-circular key is positioned around the at least one mounting hole in the first cable cleat half and the at least one mounting hole in the second cable cleat half, thereby defining slots in the remainder of each mounting hole, whereby each slot is arranged to receive one of the semi-circular keys from an opposing inverted cable cleat half to interlock the first cable cleat half to the second cable cleat half, wherein the outer surface of the first cable cleat half and the outer surface of the second cable cleat half have ribs for strengthening the cable cleat halves. a first cable cleat half having an outer surface, an inner surface, and at least one mounting hole extending from the outer surface to the inner surface; a second cable cleat half having an outer surface, an inner surface, and at least one mounting hole extending from the outer surface to the inner surface; and semi-circular keys extending from the inner surface of the first cable cleat half and the inner surface of the second cable cleat half, each semi-circular key is positioned around the at least one mounting hole in the first cable cleat half and the at least one mounting hole in the second cable cleat half, thereby defining slots in the remainder of each mounting hole, whereby each slot is arranged to receive one of the semi-circular keys from an opposing inverted cable cleat half to interlock the first cable cleat half to the second cable cleat half, wherein the outer surface of the first cable cleat half and the outer surface of the second cable cleat half have ribs for strengthening the cable cleat halves.
Rack of a dishwasher with a holding element (7; 7'; 7a, 7b, 7c; 7a to 7e) for holding items to be washed (16; 16, 22; 24), wherein the holding element (7; 7'; 7a, 7b, 7c; 7a to 7e) comprises at least three webs (8, 9, 10), which are connected to one another in order to form a closed polygonal shape, and a bearing device (11; 11'), by means of which the holding element (7; 7'; 7a, 7b, 7c; 7a to 7e) can be pivotably attached about a pivot axis to a corresponding bearing device (19; 19a, 19b), wherein a frame element of the rack is embodied as the corresponding bearing device (19; 19a, 19b) for the holding element (7; 7'; 7a, 7b, 7c; 7a to 7e) and the shape of the holding element (7; 7'; 7a, 7b, 7c; 7a to 7e) extends in a plane which is perpendicular to the pivot axis about which the holding element (7; 7'; 7a, 7b, 7c; 7a to 7e) can be pivoted, characterised in that the holding element (7; 7'; 7a, 7b, 7c; 7a to 7e) has a triangular shape, wherein an angle (α) between a first web and a second web is more acute than an angle (β) between the first web and a third web.
A method of operating an internal combustion engine (100, 12, 200) having pilot subchambers (142, 32) communicating with main combustion chambers (122, 16), the internal combustion engine (100, 12, 200) configured in use to deliver a main fuel injection of a maximum quantity of fuel to the main combustion chambers (122, 16) when the internal combustion engine (100, 12, 200) is operated at maximum load, the method comprising: delivering a pilot fuel injection of a pilot quantity of fuel to the pilot subchambers (142, 32), whereby the pilot quantity is at most 10% of the maximum quantity; igniting the pilot fuel injection within the pilot subchambers (142, 32); directing the ignited fuel from the pilot subchambers (142, 32) to the main combustion chambers (122, 16); and wherein the internal combustion engine (100, 12, 200) has a number P of pilot subchambers (142, 32) communicating with main combustion chambers (122, 16), the method further comprising: for a number n of the main combustion chambers (122, 16) receiving the ignited fuel, delivering a main fuel injection of a first main quantity of fuel, the first main quantity being at most 10% of the maximum quantity; for a number P-n of the main combustion chambers (122, 16) receiving the ignited fuel, delivering a main fuel injection of a second main quantity of fuel, the second main quantity of fuel being more than 10% of the maximum quantity; and varying n incrementally between zero and P or varying n incrementally between P and zero. delivering a pilot fuel injection of a pilot quantity of fuel to the pilot subchambers (142, 32), whereby the pilot quantity is at most 10% of the maximum quantity; igniting the pilot fuel injection within the pilot subchambers (142, 32); directing the ignited fuel from the pilot subchambers (142, 32) to the main combustion chambers (122, 16); and wherein the internal combustion engine (100, 12, 200) has a number P of pilot subchambers (142, 32) communicating with main combustion chambers (122, 16), the method further comprising: for a number n of the main combustion chambers (122, 16) receiving the ignited fuel, delivering a main fuel injection of a first main quantity of fuel, the first main quantity being at most 10% of the maximum quantity; for a number P-n of the main combustion chambers (122, 16) receiving the ignited fuel, delivering a main fuel injection of a second main quantity of fuel, the second main quantity of fuel being more than 10% of the maximum quantity; and varying n incrementally between zero and P or varying n incrementally between P and zero.
A shower assembly group, comprising: - a shower head housing including a fluid inlet into the shower head housing and - a distributor plate in the shower head housing, wherein a plurality of separate fluid conduit paths (9a, 9b, 9c) is provided and the distributor plate has passage openings diverting from the fluid conduit paths, characterized by - a plurality of jet disks which are provided with different chamber-forming and/or fluid shut-off structures on an internal side and are selectively optionally attachable to the distributor plate and comprise one or more jet outlet openings, respectively, - wherein by the chamber-forming structure of a respective attached jet disk, a jet disk-specific outlet chamber structure is formed between the distributor plate and the jet disk, with the passage openings ending into the outlet chamber structure, and/or wherein by the fluid shut-off structure of a respective attached jet disk, a jet disk-specific fluid shut-off structure is formed between the distributor plate and the jet disk, to shut off at least one of the fluid conduit paths (9a, 9b, 9c). - a shower head housing including a fluid inlet into the shower head housing and - a distributor plate in the shower head housing, wherein a plurality of separate fluid conduit paths (9a, 9b, 9c) is provided and the distributor plate has passage openings diverting from the fluid conduit paths, - a plurality of jet disks which are provided with different chamber-forming and/or fluid shut-off structures on an internal side and are selectively optionally attachable to the distributor plate and comprise one or more jet outlet openings, respectively, - wherein by the chamber-forming structure of a respective attached jet disk, a jet disk-specific outlet chamber structure is formed between the distributor plate and the jet disk, with the passage openings ending into the outlet chamber structure, and/or wherein by the fluid shut-off structure of a respective attached jet disk, a jet disk-specific fluid shut-off structure is formed between the distributor plate and the jet disk, to shut off at least one of the fluid conduit paths (9a, 9b, 9c).
A method operational on an access terminal, comprising: determining that a predefined number of consecutive acquisition attempts with a base station have failed; ceasing from subsequent acquisition attempts with the base station for a predefined blacklisting period in response to failure of the predefined number of consecutive acquisition attempts, and characterised in that the ceasing is further in response to an availability of a predefined number of other base stations for acquisition by the access terminal, or a number of other blacklisted base stations being below a predefined threshold; and conducting a subsequent acquisition attempt with the base station following the predefined blacklisting period. determining that a predefined number of consecutive acquisition attempts with a base station have failed; ceasing from subsequent acquisition attempts with the base station for a predefined blacklisting period in response to failure of the predefined number of consecutive acquisition attempts, and characterised in that the ceasing is further in response to an availability of a predefined number of other base stations for acquisition by the access terminal, or a number of other blacklisted base stations being below a predefined threshold; and an availability of a predefined number of other base stations for acquisition by the access terminal, or a number of other blacklisted base stations being below a predefined threshold; and conducting a subsequent acquisition attempt with the base station following the predefined blacklisting period.
A parallel robot having at least one closed kinematic chain, comprising at least two base structures consisting each of at least one upper arm and at least one forearm, said upper arms being each fixedly mounted at a first end to the robot base by means of an upper arm joint and connected at a second end to a first end of a forearm by means of a forearm joint, and said forearms being connected at their second ends to an end effector by means of a single wrist or by individual wrists, each upper arm being driveable connected to a drive device, characterised in that the upper arm joint and the forearm joint of at least one base structure are capable of rotating and the drive device of the at least one base structure is configured for driving the upper arm in a rotating manner, said drive device of the at least one base structure being operatively connected to a control device which activates the drive device in such a manner that the end effector is made to execute a periodic movement between at least two operating points within a working area situated in a half-space delimited by the upper arm joints by having the upper arm of at least one base structure perform continually rotating movements, with the trajectory of the end effector touching the delimitation of the working area at least once in the course of a motion period, thus causing a configuration change.
Method for preparing an enantiomerically enriched α-amino acid N -carboxyanhydride of formula (IIIa): from the compound of formula (IIa) (or (IIb) respectively): in which formulae: • R1 and R2 denote, independently of one another, an alkyl group; and • R3 denotes an alkyl or alkylaryl group; comprising the following steps: (i) bringing the compound of formula (IIa) (or (IIb) respectively) into contact with SOCl 2 in a solvent; (ii) precipitating the N -carboxyanhydride formed in step (i) using a non-solvent; and (iii) recovering the N -carboxyanhydride, and not comprising any recrystallization step, nor a sublimation step of the N -carboxyanhydride. • R1 and R2 denote, independently of one another, an alkyl group; and • R3 denotes an alkyl or alkylaryl group; (i) bringing the compound of formula (IIa) (or (IIb) respectively) into contact with SOCl 2 in a solvent; (ii) precipitating the N -carboxyanhydride formed in step (i) using a non-solvent; and (iii) recovering the N -carboxyanhydride,
Accessory installation pallet for handling accessory on an off-shore vessel, the installation pallet comprising: - a pallet frame, which pallet frame provides the pallet with structural rigidity and which pallet frame is provided with fixating devices for securing an accessory, e.g. a pipeline end termination (PLET), to the pallet, wherein the pallet frame is furthermore provided with one or more coupling devices adapted to couple the pallet with a PLET handler, to allow the PLET handler to pivot the pallet from a horizontal transport position into an upright support position, and which pallet frame has a support side, which support side faces the accessory when the accessory is mounted on the pallet, and a transport side, which transport side faces away from the support side, and at which transport side the pallet frame is configured as a skid frame for transporting, i.e. skidding, to enable transport of the accessory over the deck of the off-shore vessel; and - multiple pivotable deck sections, which pivotable deck sections are pivotably mounted in the pallet frame, such that each deck sections can pivot between a folded position, in which the deck section is located adjacent the pallet frame, preferably within the pallet frame, and an extended position, in which the deck section at the support side of the pallet frame extends in a direction away from the pallet frame. - a pallet frame, which pallet frame provides the pallet with structural rigidity and which pallet frame is provided with fixating devices for securing an accessory, e.g. a pipeline end termination (PLET), to the pallet, wherein the pallet frame is furthermore provided with one or more coupling devices adapted to couple the pallet with a PLET handler, to allow the PLET handler to pivot the pallet from a horizontal transport position into an upright support position, and which pallet frame has a support side, which support side faces the accessory when the accessory is mounted on the pallet, and a transport side, which transport side faces away from the support side, and at which transport side the pallet frame is configured as a skid frame for transporting, i.e. skidding, to enable transport of the accessory over the deck of the off-shore vessel; and - multiple pivotable deck sections, which pivotable deck sections are pivotably mounted in the pallet frame, such that each deck sections can pivot between a folded position, in which the deck section is located adjacent the pallet frame, preferably within the pallet frame, and an extended position, in which the deck section at the support side of the pallet frame extends in a direction away from the pallet frame.
A negative electrode (100, 200, 300) for a secondary battery, the negative electrode comprising: first to n-th current collectors disposed in parallel to each other wherein n is an integer between 2 and 5; and a mixture layer formed on one or both surfaces of each current collector, wherein the mixture layer formed on at least one of the current collectors includes an active material containing a silicon component, wherein the mixture layer formed on another one or more of the current collectors includes an active material containing a carbon component, and wherein one or more ends of the first to n-th current collectors are coupled to be electrically connected, wherein in the mixture layer comprising an active material containing a silicon component, a content of the active material containing the silicon component is in a range of 50 to 100% by weight, based on 100% by weight of the mixture layer including the active material containing the silicon component, and wherein in the mixture layer including an active material containing a carbon component, a content of the active material containing the carbon component is in a range of 90 to 98% by weight, based on 100% by weight of the mixture layer including the active material containing the carbon component. first to n-th current collectors disposed in parallel to each other wherein n is an integer between 2 and 5; and a mixture layer formed on one or both surfaces of each current collector, wherein the mixture layer formed on at least one of the current collectors includes an active material containing a silicon component, wherein the mixture layer formed on another one or more of the current collectors includes an active material containing a carbon component, and wherein one or more ends of the first to n-th current collectors are coupled to be electrically connected, wherein in the mixture layer comprising an active material containing a silicon component, a content of the active material containing the silicon component is in a range of 50 to 100% by weight, based on 100% by weight of the mixture layer including the active material containing the silicon component, and wherein in the mixture layer including an active material containing a carbon component, a content of the active material containing the carbon component is in a range of 90 to 98% by weight, based on 100% by weight of the mixture layer including the active material containing the carbon component.
A circuit comprising: a microelectromechanical, MEMS, gyroscope; and a gain circuit coupled with the MEMS gyroscope, the gain circuit configured to receive a digitized drive signal based at least in part on a digitized drive voltage amplitude of the MEMS gyroscope, the gain circuit configured to determine a percentage change in quality factor of the MEMS gyroscope based at least in part on the digitized drive signal and a stored trim value of the MEMS gyroscope, and the gain circuit configured to compensate for an effect of a change in the quality factor of the MEMS gyroscope based at least in part on the percentage change in quality factor, wherein the stored trim value is an initial digitized drive voltage amplitude of the MEMS gyroscope. a microelectromechanical, MEMS, gyroscope; and a gain circuit coupled with the MEMS gyroscope, the gain circuit configured to receive a digitized drive signal based at least in part on a digitized drive voltage amplitude of the MEMS gyroscope, the gain circuit configured to determine a percentage change in quality factor of the MEMS gyroscope based at least in part on the digitized drive signal and a stored trim value of the MEMS gyroscope, and the gain circuit configured to compensate for an effect of a change in the quality factor of the MEMS gyroscope based at least in part on the percentage change in quality factor, wherein the stored trim value is an initial digitized drive voltage amplitude of the MEMS gyroscope.
An image forming apparatus comprising: setting means (201; 206; S502) for setting a target toner save value used in toner save processing; generating means for generating bitmap data for respective pages from a print job; processing means (204, 403; S504; S505) for performing, in accordance with the target toner save value set by the setting means, toner save processing on the bitmap data of a current page of the print job; characterized by calculation means (205, 302; S506) for calculating, as an actual toner save amount for the current page, a difference between a toner consumption amount before the toner save processing and a toner consumption amount after the toner save processing for the current page, and calculating a difference value between the calculated actual toner save amount for the current page and the target toner save value set by the setting means, wherein the setting means set an adjusted target toner save value as the target toner save value for the next page, the adjusted target toner save value being obtained by adding the difference value calculated by the calculation means to the target toner save value for the current page set by the setting means. setting means (201; 206; S502) for setting a target toner save value used in toner save processing; generating means for generating bitmap data for respective pages from a print job; processing means (204, 403; S504; S505) for performing, in accordance with the target toner save value set by the setting means, toner save processing on the bitmap data of a current page of the print job; characterized by calculation means (205, 302; S506) for calculating, as an actual toner save amount for the current page, a difference between a toner consumption amount before the toner save processing and a toner consumption amount after the toner save processing for the current page, and calculating a difference value between the calculated actual toner save amount for the current page and the target toner save value set by the setting means, wherein the setting means set an adjusted target toner save value as the target toner save value for the next page, the adjusted target toner save value being obtained by adding the difference value calculated by the calculation means to the target toner save value for the current page set by the setting means.