mhurhangee/ep-ind-claims huggingface dataset:
A machine for scraping away sediment or the like deposited on the bottom of a gallery, the machine being characterized in that it comprises: • a first movable body suitable for moving over the bottom portion of the wall of the gallery, said first movable body presenting a front and a rear; • first movement means (16, 18, 20) for enabling said first movable body to move on the bottom portion of the wall of the gallery; • scraper means for detaching sediment from the bottom of the gallery and mounted at the front of said first movable body; • first buffer storage means mounted on said first movable body; • first transfer means for transferring detached sediment into said first buffer storage means; • second transfer means for transferring sediment stored in said first buffer storage means to the outside of said first movable body; • a second movable body distinct from the first movable body, and suitable for moving along the bottom portion of the wall of the gallery; • second movement means (54, 56, 58, 60) for enabling said second movable body to move on the bottom portion of the wall of the gallery; and • second storage means mounted on said second movable body to collect the sediment transferred to the outside of the first movable body by second transfer means. • a first movable body suitable for moving over the bottom portion of the wall of the gallery, said first movable body presenting a front and a rear; • first movement means (16, 18, 20) for enabling said first movable body to move on the bottom portion of the wall of the gallery; • scraper means for detaching sediment from the bottom of the gallery and mounted at the front of said first movable body; • first buffer storage means mounted on said first movable body; • first transfer means for transferring detached sediment into said first buffer storage means; • second transfer means for transferring sediment stored in said first buffer storage means to the outside of said first movable body; • a second movable body distinct from the first movable body, and suitable for moving along the bottom portion of the wall of the gallery; • second movement means (54, 56, 58, 60) for enabling said second movable body to move on the bottom portion of the wall of the gallery; and • second storage means mounted on said second movable body to collect the sediment transferred to the outside of the first movable body by second transfer means.
An engine apparatus comprising: an engine including an exhaust manifold; and an exhaust gas throttle device configured to adjust an exhaust gas pressure of the exhaust manifold, wherein an exhaust gas intake side of a throttle valve casing of the exhaust gas throttle device is fastened to an exhaust gas exit of the exhaust manifold, and an exhaust pipe is coupled to the exhaust manifold through the throttle valve casing of the exhaust gas throttle device, characterized in that the throttle valve casing is coupled to an upper surface side of the exhaust manifold, wherein a relay pipe is coupled to an upper surface side of the throttle valve casing, wherein the throttle valve casing and the relay pipe are placed in multiple layers with respect to the exhaust manifold, and wherein the exhaust pipe is coupled to the relay pipe at an uppermost layer portion. an engine including an exhaust manifold; and an exhaust gas throttle device configured to adjust an exhaust gas pressure of the exhaust manifold, wherein an exhaust gas intake side of a throttle valve casing of the exhaust gas throttle device is fastened to an exhaust gas exit of the exhaust manifold, and an exhaust pipe is coupled to the exhaust manifold through the throttle valve casing of the exhaust gas throttle device, the throttle valve casing is coupled to an upper surface side of the exhaust manifold, wherein a relay pipe is coupled to an upper surface side of the throttle valve casing, wherein the throttle valve casing and the relay pipe are placed in multiple layers with respect to the exhaust manifold, and wherein the exhaust pipe is coupled to the relay pipe at an uppermost layer portion.
A process for forming a polymer comprising residues of 2-(4-amino phenyl)-5 amino benzimidazole (DAPBI), paraphenylene diamine, and terephthaloyl dichloride, comprising the steps of: a) forming a slurry of DAPBI in a solvent system comprising an organic solvent and an inorganic salt; b) adding less than a stoichiometric amount, relative to the amount of DAPBI, of terephthaloyl dichloride to the slurry; c) agitating the slurry to react the DAPBI and terephthaloyl dichloride to form an oligomeric solution; d) adding PPD to the oligomeric solution and agitating until essentially all of the PPD is dissolved, followed by the addition of terephthaloyl dichloride to form a prepolymer solution; and e) allowing the prepolymer solution to form a polymer. a) forming a slurry of DAPBI in a solvent system comprising an organic solvent and an inorganic salt; b) adding less than a stoichiometric amount, relative to the amount of DAPBI, of terephthaloyl dichloride to the slurry; c) agitating the slurry to react the DAPBI and terephthaloyl dichloride to form an oligomeric solution; d) adding PPD to the oligomeric solution and agitating until essentially all of the PPD is dissolved, followed by the addition of terephthaloyl dichloride to form a prepolymer solution; and e) allowing the prepolymer solution to form a polymer.
An airbag cover, said airbag cover comprising - at least one door portion (19a, 19b), adapted to be opened to allow at least a portion of an airbag to be deployed, - at least one hinge portion (21a, 21b), located adjacent to a side (20a, 20b) of said door portion (19a, 19b) and being adapted to provide a hinge for said door portion (19a, 19b) when opening, - at least one reinforcement portion, at least partly surrounding said at least one door portion (19a, 19b) and said at least one hinge portion (21a, 21b), said airbag cover comprising a mesh member, a first portion (39a, 39b) of said mesh member being located in said at least one reinforcement portion and a second portion (41a, 41b) of said mesh member being located in said at least one hinge portion (21a, 21b), said at least one reinforcement portion comprising at least one rib (29, 59) protruding in a first direction (D 1), characterized in that said first portion (39a, 39b) of said mesh member has a non-planar cross-section by said mesh member being moulded into a portion of said at least one rib, such that said mesh member traverses said at least one rib, said mesh member is located at a surface of said door portion (19a, 19b) and/or said hinge portion (21a, 21b), and said mesh member enters said at least one rib along a jagged line. - at least one door portion (19a, 19b), adapted to be opened to allow at least a portion of an airbag to be deployed, - at least one hinge portion (21a, 21b), located adjacent to a side (20a, 20b) of said door portion (19a, 19b) and being adapted to provide a hinge for said door portion (19a, 19b) when opening, - at least one reinforcement portion, at least partly surrounding said at least one door portion (19a, 19b) and said at least one hinge portion (21a, 21b),
Method for manufacturing a part by forging, comprising steps of manufacturing a semi-finished part by precision forging, determining the conform geometric features of the part to be obtained in a theoretical model and polishing the part by means of an abrasive band, the abrasive band being rotated by a wheel and the pressure of the band on the surface of the part being exercised by the wheel, the abrasive band being mounted on a support, the said part and the support being movable with respect to each other, characterised by the fact that it comprises the following steps: - measuring the geometric features of the semi-finished part after forging, and comparison with the theoretical model, - determining on the surface of the part, the zones which are not conform, - determining the quantity of material to be removed from the non-conform zones to make them conform, - polishing the part by means of the abrasive band, by controlling the said band so as to remove the said quantity of material in each non-conform zone, in that the abrasive band is controlled by varying the speed of advance relative to the part with respect to the abrasive band along the longitudinal axis of the part, the other parameters for controlling the abrasive band remaining constant, the other parameters comprising the speed of rotation of the abrasive band and the contact pressure of the wheel on the surface of the part. - measuring the geometric features of the semi-finished part after forging, and comparison with the theoretical model, - determining on the surface of the part, the zones which are not conform, - determining the quantity of material to be removed from the non-conform zones to make them conform, - polishing the part by means of the abrasive band, by controlling the said band so as to remove the said quantity of material in each non-conform zone,
A multifocal ophthalmic lens, comprising: an anterior face with an anterior refractive profile and a posterior face with a posterior refractive profile, the faces disposed about an optical axis; and a diffractive profile imposed on one of the refractive profiles, the diffractive profile characterized by a plurality of echelettes, the plurality of echelettes comprising a central echelette and a plurality of surrounding echelettes disposed about the central echelette, wherein each of the plurality of echelettes is defined by a continuous function, wherein the slope and height at the end of each echelette is the same as the slope and height at the start of the adjacent echelette to provide a smooth connection, wherein each of the surrounding echelettes has an echelette form that is unequal to the echelette form of any of the remaining surrounding echelettes, wherein the echelette form of an echelette is the shape of the profile of the echelette when plotted verses radius squared from the optical axis, and two echelettes have unequal echelette forms if profiles of each versus radius squared: are not the same when normalized to the echelette height; and could not be made equal by a simple linear scaling constant. an anterior face with an anterior refractive profile and a posterior face with a posterior refractive profile, the faces disposed about an optical axis; and a diffractive profile imposed on one of the refractive profiles, the diffractive profile characterized by a plurality of echelettes, the plurality of echelettes comprising a central echelette and a plurality of surrounding echelettes disposed about the central echelette, wherein each of the plurality of echelettes is defined by a continuous function, wherein the slope and height at the end of each echelette is the same as the slope and height at the start of the adjacent echelette to provide a smooth connection, wherein each of the surrounding echelettes has an echelette form that is unequal to the echelette form of any of the remaining surrounding echelettes, wherein the echelette form of an echelette is the shape of the profile of the echelette when plotted verses radius squared from the optical axis, and two echelettes have unequal echelette forms if profiles of each versus radius squared: are not the same when normalized to the echelette height; and could not be made equal by a simple linear scaling constant. are not the same when normalized to the echelette height; and could not be made equal by a simple linear scaling constant.
Euphonium for children, having a total tubing length in accordance with tuning in fundamental pitch Bb, formed in portions by a bell having a first bell end portion and a second bell end portion, a lower bow portion disposed at said second bell end portion and a body portion disposed at said lower bow portion, characterized in that the total height of the euphonium between the outermost point of said lower bow portion and said first bell end portion is less than 52 cm.
Use of starch derivatives, wherein the starch derivative is partially acetylated and partially acylated with at least one fatty acid, as additive in coating compositions, wherein the MW of the starch derivative is from 3.000 to 50.000 g/mol, determined using gel permeation chromatography, using a SDV LIN XL column at 35°C in CHCl 3:MeOH 10:1 v/v.
A method for determining distance between a vessel and at least one sensor module arranged on fishing gear being towed by the vessel, the at least one sensor module (13, 15, 16) comprising a transmitter connected to a clock and a receiver connected to a clock being arranged on the vessel, wherein the method comprises the following steps: - time-synchronising the clocks connected to transmitter and receiver with each other; characterized in that it further comprises - transmitting a series of signals from the transmitter at a predetermined, fixed time interval between each transmitted signal of the series; - receiving in the receiver the series of signals from the transmitter; and, on the basis of the time of the reception of the signals, calculating the distance between the transmitter and the receiver. - time-synchronising the clocks connected to transmitter and receiver with each other; characterized in that it further comprises - transmitting a series of signals from the transmitter at a predetermined, fixed time interval between each transmitted signal of the series; - receiving in the receiver the series of signals from the transmitter; and, on the basis of the time of the reception of the signals, calculating the distance between the transmitter and the receiver.
Satellite comprising at least one first communication module, a repeater module, one or more antennas, at least one propulsion module and an avionics module, the repeater module being comprised of at least the following elements: • a north first panel when the satellite is in an orbital position, • an east second panel, • a south third panel and a west fourth panel arranged respectively opposite the north first panel and the east second panel, • the north panel and the south panel having widths Xmc R in the east-west direction, the east panel and the west panel having a width or Ymc R in the north-south direction, • the value of the ratio Xmc R /Ymc R for the repeater module lies within the interval [0.84; 1.12], characterized in that • the repeater module consists of a number of floors (620, 621), the floor of index k having a width Xmck in the east-west direction, and the value of Xmck varies as a function of the floor k and of its position in the repeater module. • a north first panel when the satellite is in an orbital position, • an east second panel, • a south third panel and a west fourth panel arranged respectively opposite the north first panel and the east second panel, • the north panel and the south panel having widths Xmc R in the east-west direction, the east panel and the west panel having a width or Ymc R in the north-south direction, • the value of the ratio Xmc R /Ymc R for the repeater module lies within the interval [0.84; 1.12], characterized in that • the repeater module consists of a number of floors (620, 621), the floor of index k having a width Xmck in the east-west direction, and the value of Xmck varies as a function of the floor k and of its position in the repeater module.
A method of wireless communication comprising: receiving a subframe, during a synchronization period from a base station transmitting on a set of antenna ports, the set of antenna ports comprising all antenna ports of the base station, wherein a beam direction of each antenna port of the set of antenna ports changes from symbol to symbol of the subframe, the subframe comprising, in all of its symbols, one or more beam reference signals and one or more physical broadcast channel, PBCH, signals; determining one or more channel estimates based at least in part on the one or more beam reference signals; and decoding one or more PBCH signals based at least in part on the one or more channel estimates, wherein each of the one or more beam reference signals comprise a set of signals corresponding to the set of antenna ports, wherein the one or more beam reference signals are code division multiplexed using a set of orthogonal cover codes over a set of beam reference signal subcarriers, wherein each orthogonal cover code contained in the set is associated with an antenna port of the set of antenna ports. receiving a subframe, during a synchronization period from a base station transmitting on a set of antenna ports, the set of antenna ports comprising all antenna ports of the base station, wherein a beam direction of each antenna port of the set of antenna ports changes from symbol to symbol of the subframe, the subframe comprising, in all of its symbols, one or more beam reference signals and one or more physical broadcast channel, PBCH, signals; determining one or more channel estimates based at least in part on the one or more beam reference signals; and decoding one or more PBCH signals based at least in part on the one or more channel estimates, wherein each of the one or more beam reference signals comprise a set of signals corresponding to the set of antenna ports,
An anti-CD25 antibody for use in the treatment of cancer in a human subject, wherein the antibody is a human IgG2 antibody and depletes CD25+ cells and depletes tumor-infiltrating regulatory T-cells.
A bridal wear, comprising: a) a garment, comprising water resistant material; b) a bridal wedding train, comprising water resistant material; c) an attachment device; and d) a corresponding attachment device, e) wherein one of the attachment device or the corresponding attachment device is connected to the garment, and the other of the attachment device or the corresponding attachment device is connected to the bridal wedding train, and wherein the attachment device is configured to attach and release from the corresponding attachment device, characterized in that f) the attachment device is a double-pronged hook, and the corresponding attachment device is a heart-shaped eye, g) the double-pronged hook comprises a mating portion, the mating portion comprising a first prong and a second prong, each prong (132a, 132b) of the mating portion comprising a lateral leg (134a, 134b), a medial leg (136a, 136b) parallel to the lateral leg (134a, 134b), and a connecting leg (138a, 138b) connecting the lateral leg (134a, 134b) to its respective medial leg (136a, 136b), and h) the heart-shaped eye comprises a reciprocal mating portion, the reciprocal mating portion comprising two curved humps (152a, 152b) connected together in a mirror-image arrangement, and bilaterally arranged side arms (156a, 156b) emanating from the humps (152a, 152b) and converging towards each other. a) a garment, comprising water resistant material; b) a bridal wedding train, comprising water resistant material; c) an attachment device; and d) a corresponding attachment device, e) wherein one of the attachment device or the corresponding attachment device is connected to the garment, and the other of the attachment device or the corresponding attachment device is connected to the bridal wedding train, and wherein the attachment device is configured to attach and release from the corresponding attachment device, characterized in that f) the attachment device is a double-pronged hook, and the corresponding attachment device is a heart-shaped eye, g) the double-pronged hook comprises a mating portion, the mating portion comprising a first prong and a second prong, each prong (132a, 132b) of the mating portion comprising a lateral leg (134a, 134b), a medial leg (136a, 136b) parallel to the lateral leg (134a, 134b), and a connecting leg (138a, 138b) connecting the lateral leg (134a, 134b) to its respective medial leg (136a, 136b), and h) the heart-shaped eye comprises a reciprocal mating portion, the reciprocal mating portion comprising two curved humps (152a, 152b) connected together in a mirror-image arrangement, and bilaterally arranged side arms (156a, 156b) emanating from the humps (152a, 152b) and converging towards each other.
Direct printing machine for printing onto containers with a conveyor for transporting said containers in container receptacles along a transport path and with several printing stations which are respectively associated with said container receptacles and which are each formed with several separately adjustable direct print heads for printing several partial prints of a direct print onto a container, where said printing stations are each associated with their individual inspection device with at least one camera to inspect the position of said partial prints on said container, and where said camera is movable by a positioning unit (53, 55), characterized in that said positioning unit is configured to move said associated container receptacle together with said camera relative to said direct print heads, or in that said positioning unit is configured to move said direct print heads together with said camera relative to said associated container receptacle.
A method for providing a high level interface to a graphics processing resource comprising: a first process requesting performance of a task through one or more high-level function calls serviced by said graphics processing resource, said high-level function calls selected from one or more of the following options, (i) creating of an image (51, 419, 424, 425, 426, 427, 428, 429), (ii) creating a filter (52, 53, 54), (Iii) setting arguments associated with said filter, (iv) asking for the output of said filter or another filter, (v) creating a context; and (vi) rendering an image to said context or another context, said request having an object associated therewith, said object comprising one of the following: a context, an image, a filter, or a vector; said request defining a relationship between at least one of said functions and one of said objects and creating a low-level graph representing an image in response to a high-level function call; said graphics processing resource servicing said request. a first process requesting performance of a task through one or more high-level function calls serviced by said graphics processing resource, said high-level function calls selected from one or more of the following options, (i) creating of an image (51, 419, 424, 425, 426, 427, 428, 429), (ii) creating a filter (52, 53, 54), (Iii) setting arguments associated with said filter, (iv) asking for the output of said filter or another filter, (v) creating a context; and (vi) rendering an image to said context or another context, (i) creating of an image (51, 419, 424, 425, 426, 427, 428, 429), (ii) creating a filter (52, 53, 54), (Iii) setting arguments associated with said filter, (iv) asking for the output of said filter or another filter, (v) creating a context; and (vi) rendering an image to said context or another context, said request having an object associated therewith, said object comprising one of the following: a context, an image, a filter, or a vector; said request defining a relationship between at least one of said functions and one of said objects and creating a low-level graph representing an image in response to a high-level function call; said graphics processing resource servicing said request.