mhurhangee/ep-ind-claims huggingface dataset:
Method for optimizing a baking process, having the following steps: • placing a baked goods carrier onto a work surface (18, 18'); • filling the baked goods carrier with pieces of dough by the operating personnel; • capturing the actual filling by means of an image recording apparatus (22, 22') and transmitting the captured data to the computer; characterized by the following steps: • storing on a data storage unit coupled to the computer data for the desired filling, including the exact filling plan having the positions and orientations of the baked goods; • transmitting display data, by means of a computer, to a digitally controlled display apparatus (20, 20', 32) close to the work surface (18, 18') for displaying desired filling; • evaluating the captured data of the actual filling by means of the computer and comparing them with the data relating to the desired filling; • acting on the filling process and/or the baking process by means of the computer on the basis of the comparison of the captured data of the actual filling with the data relating to the desired filling, wherein a signal is output if the captured actual filling deviates from the desired filling. • placing a baked goods carrier onto a work surface (18, 18'); • filling the baked goods carrier with pieces of dough by the operating personnel; • capturing the actual filling by means of an image recording apparatus (22, 22') and transmitting the captured data to the computer; characterized by the following steps: • storing on a data storage unit coupled to the computer data for the desired filling, including the exact filling plan having the positions and orientations of the baked goods; • transmitting display data, by means of a computer, to a digitally controlled display apparatus (20, 20', 32) close to the work surface (18, 18') for displaying desired filling; • evaluating the captured data of the actual filling by means of the computer and comparing them with the data relating to the desired filling; • acting on the filling process and/or the baking process by means of the computer on the basis of the comparison of the captured data of the actual filling with the data relating to the desired filling, wherein a signal is output if the captured actual filling deviates from the desired filling. • storing on a data storage unit coupled to the computer data for the desired filling, including the exact filling plan having the positions and orientations of the baked goods; • transmitting display data, by means of a computer, to a digitally controlled display apparatus (20, 20', 32) close to the work surface (18, 18') for displaying desired filling; • evaluating the captured data of the actual filling by means of the computer and comparing them with the data relating to the desired filling; • acting on the filling process and/or the baking process by means of the computer on the basis of the comparison of the captured data of the actual filling with the data relating to the desired filling, wherein a signal is output if the captured actual filling deviates from the desired filling.
A combination of a tertiary carton (90; 190; 290; 390) and a plurality of packages (1090; 1190; 1290; 1390; 1490; 1590; 1690) received in the tertiary carton wherein the tertiary carton comprises a bottom panel and a plurality of side and end panels (14, 18, 22a 24a, 24b, 26a, 28a, 28b, 30a, 22b, 24c, 24d, 26b, 28c, 28d, 30b) each extending upward from the bottom panel to form side and end walls (SW, EW), the plurality of side and end walls (SW, EW) including a first side wall and a first end wall disposed at about a right angle with respect to one another, the plurality of packages includes a corner package which comprises a secondary carton having a tubular structure and one or more generally cylindrical primary containers each received at least in part in the secondary carton, the tubular structure comprising a pair of opposing carton side panels (1314, 1318; 1414, 1418), wherein the corner package is disposed with a terminal end thereof facing the inside surface of the first end wall with the tubular axis of the secondary carton thereof extending generally perpendicularly to the first end wall, wherein the secondary carton of the corner package is in contact at one of the carton side panels (1314, 1318; 1414, 1418) thereof with the first side wall, and wherein the one or more primary containers of the corner package each is disposed with the cylindrical axis thereof extending generally perpendicularly to the bottom panel, the combination being characterised by the tertiary carton (90; 190; 290; 390) having a bevelled corner panel hingedly connecting between the first side wall and the first end wall, and by the following formula: a 1 ≤ 1/2 d, a 2 ≤ 1/2 d and a 1 ≤ b 1 where "d" is the maximum diameter (maximum lateral size) of each of the one or more primary containers, "a1" is the distance between a notional plane containing the inside surface of the first end wall and the fold line between the corner panel and the first side wall, "a2" is the distance between a notional plane containing the inside surface of the first side wall and the fold line between the corner panel and the first end wall, and "b1" is the distance between a notional plane containing the terminal end and a maximum width point along an end edge of the one carton side panel (1314, 1318; 1414, 1418) adjacent to the corner panel, the maximum width point defining the maximum width of the secondary carton extending between itself and a point on the other carton side panel (1314, 1318; 1414, 1418) of the secondary carton, the notional plane containing the terminal end being parallel to or containing the inside surface of the first end wall.
An apparatus for opening and closing a vehicle door, comprising control means for recognizing via telecommunication a portable device carried by a person and recognizing an intention of a person to lock or unlock the vehicle door and controlling the locking or unlocking of the vehicle door, said apparatus for opening and closing a vehicle door; the apparatus further comprising: a door handle for performing an opening and closing operation of the vehicle door; a locking operation detector provided as an operation detector on a side of the door handle facing away from the vehicle door for detecting a state of the door handle as operated by the person; and a light-emitting part energized by the control means to emit light according to a controlled state in which the vehicle door is locked, having an ornamental light part that is provided in a circumferential configuration so as to enclose a periphery of the locking operation detector and is visible from an exterior of the door handle during actuation of the locking operation detector by the person, even if the person covers a portion of the ornamental light part; wherein the locking operation detector and the light-emitting part are configured as a hermetically integrated switch module and housed within the door handle. a door handle for performing an opening and closing operation of the vehicle door; a locking operation detector provided as an operation detector on a side of the door handle facing away from the vehicle door for detecting a state of the door handle as operated by the person; and a light-emitting part energized by the control means to emit light according to a controlled state in which the vehicle door is locked, having an ornamental light part that is provided in a circumferential configuration so as to enclose a periphery of the locking operation detector and is visible from an exterior of the door handle during actuation of the locking operation detector by the person, even if the person covers a portion of the ornamental light part; wherein the locking operation detector and the light-emitting part are configured as a hermetically integrated switch module and housed within the door handle.
A method performed by a network device for enabling relayed communication in at least one direction between a first communication unit and a second communication unit in a wireless communication system, wherein the network device is included in the first communication unit, the method comprising: - the network device specifying a relay unit for the relayed communication; - the network device determining information for scheduling and/or configuring a first transmission of a data frame from the second communication unit to the specified relay unit and a second transmission of the data frame from the specified relay unit to the first communication unit; - the network device generating a trigger frame including the information for scheduling and/or configuring the first transmission and the second transmission; characterised by: transmitting the trigger frame in a direct transmission to the second communication unit. - the network device specifying a relay unit for the relayed communication; - the network device determining information for scheduling and/or configuring a first transmission of a data frame from the second communication unit to the specified relay unit and a second transmission of the data frame from the specified relay unit to the first communication unit; - the network device generating a trigger frame including the information for scheduling and/or configuring the first transmission and the second transmission;
A sorbent cartridge (21, 41), comprising: a urease introducer for facilitating replenishment of urease to the sorbent cartridge; and at least one sorbent material, characterised in that the urease introducer is any one of a slideable tray and a door. a urease introducer for facilitating replenishment of urease to the sorbent cartridge; and at least one sorbent material, characterised in that the urease introducer is any one of a slideable tray and a door.
A chemical amplification resist composition, which is a negative chemical amplification resist composition, comprising: a polymer compound having a structure where a hydrogen atom of a phenolic hydroxyl group is replaced by a group having a non-acid-decomposable polycyclic alicyclic hydrocarbon structure; a compound capable of generating an acid upon irradiation with an actinic ray or radiation, and a compound having two or more hydroxymethyl groups or alkoxymethyl groups per molecule, wherein the phenolic hydroxyl group is a group formed by replacing a hydrogen atom of a monocyclic or polycyclic aromatic ring group by a hydroxyl group. a polymer compound having a structure where a hydrogen atom of a phenolic hydroxyl group is replaced by a group having a non-acid-decomposable polycyclic alicyclic hydrocarbon structure; a compound capable of generating an acid upon irradiation with an actinic ray or radiation, and a compound having two or more hydroxymethyl groups or alkoxymethyl groups per molecule,
A catheter comprising: a sheath surrounding an inner lumen, the inner lumen being configured to receive a fluid; wherein the sheath includes a sheath portion having an inner surface and an outer surface, wherein the sheath portion comprises a hydrophilic material along the inner surface that is in direct contact with the fluid. a sheath surrounding an inner lumen, the inner lumen being configured to receive a fluid; wherein the sheath includes a sheath portion having an inner surface and an outer surface, wherein the sheath portion comprises a hydrophilic material along the inner surface that is in direct contact with the fluid.
Low voltage hybrid cable (12, 13, 14) operating at a voltage less than 1 kV, comprising an electrical conductor (15, 23, 24) formed by a plurality of conductor wires for power transmission, at least one optical fibre unit (16, 21, 22) comprising at least one optical fibre for data transmission, and an insulation jacket (18, 25, 26) surrounding the electrical conductor and the optical fibre unit, characterized in that the at least one optical fibre unit (16, 21, 22) is a tight buffer optical fibre unit and is dispersed among the conductor wires of the electrical conductor (15, 23, 24), the diameter of said electrical conductor wires being in the range between 0.1 mm and 0.6 mm and the number of said conductor wires being at least 12 times the number of the at least one optical fibre unit (16, 21, 22), the diameter of the at least one optical fibre unit (16, 21, 22) being in the range between 1 and 5 times the diameter of the conductor wires.
A heat exchanger assembly comprising: a housing; a core situated inside said housing; two headers placed on said core; and inlet and outlet conduits (51, 52) covering said headers and closing said housing; wherein said headers comprise at their perimeters a plurality of teeth, which are bent over said inlet and outlet conduits (51, 52); characterised in that each of said teeth is provided on its inner surface with an undercut having an undercut axis; said undercut axis dividing each of said teeth into a base portion and a bendable portion, said bendable portion having a height measured from said undercut axis to an end of each of said teeth; wherein each of said teeth has a general thickness as well as a reduced thickness at said undercut; and wherein prior to bending of said teeth over said inlet and outlet conduits (51, 52) said undercut has a substantially elliptic cross-section and a semi-minor axis of an ellipse of said undercut cross-section coincides with said undercut axis; wherein said semi-minor axis has a length, which is at least half of said general thickness; and said reduced thickness of each of said teeth is at most two times smaller than said height of said bendable portion. a housing; a core situated inside said housing; two headers placed on said core; and inlet and outlet conduits (51, 52) covering said headers and closing said housing; wherein said headers comprise at their perimeters a plurality of teeth, which are bent over said inlet and outlet conduits (51, 52); characterised in that each of said teeth is provided on its inner surface with an undercut having an undercut axis; said undercut axis dividing each of said teeth into a base portion and a bendable portion, said bendable portion having a height measured from said undercut axis to an end of each of said teeth; wherein each of said teeth has a general thickness as well as a reduced thickness at said undercut; and wherein prior to bending of said teeth over said inlet and outlet conduits (51, 52) said undercut has a substantially elliptic cross-section and a semi-minor axis of an ellipse of said undercut cross-section coincides with said undercut axis; wherein said semi-minor axis has a length, which is at least half of said general thickness; and said reduced thickness of each of said teeth is at most two times smaller than said height of said bendable portion.
A multifunction control system for use with an electric power system, comprising: an output for providing first and second power to an aircraft; a monitoring unit configured to monitor at least one power characteristic; a generator control unit configured to control at least one generator characteristic and supply the first power to the monitoring unit and to the output; a ground interface unit configured to receive a ground power input and to supply the second power to the monitoring unit and to the output, wherein the ground power input is an AC power input or a DC power input from a source external to the aircraft; and a device configuration interface configured to select between a generator control mode and an external power monitor mode, wherein the device configuration interface is configured to selectively engage the monitoring unit and the generator control unit when the generator control mode is selected; and wherein the device configuration interface is configured to selectively engage the monitoring unit and the ground interface unit when the external power monitor mode is selected. an output for providing first and second power to an aircraft; a monitoring unit configured to monitor at least one power characteristic; a generator control unit configured to control at least one generator characteristic and supply the first power to the monitoring unit and to the output; a ground interface unit configured to receive a ground power input and to supply the second power to the monitoring unit and to the output, wherein the ground power input is an AC power input or a DC power input from a source external to the aircraft; and a device configuration interface configured to select between a generator control mode and an external power monitor mode, wherein the device configuration interface is configured to selectively engage the monitoring unit and the generator control unit when the generator control mode is selected; and wherein the device configuration interface is configured to selectively engage the monitoring unit and the ground interface unit when the external power monitor mode is selected.
A convertible top of a convertible vehicle, comprising a convertible-top cover which can be displaced between a closed position spanning a vehicle interior and a stowage position releasing the vehicle interior to the top by means of a convertible-top linkage and accommodates a backlite in a rear-side cutout, said backlite being provided with backlite frame for being connected to the convertible-top cover and comprising a backlite heater which is connected to an electrical supply line via a connecting element, said connecting element being a contact tab which engages with a contact plug of the electrical supply line, said contact plug being locked in a corresponding recess of the backlite frame, characterized in that the contact plug comprises an at least nearly cuboid casing which is retained in the recess by at least two locking hooks formed on the backlite frame.
Use of a reactive silyl compound represented by General Formula: Rf-X-A-SiR 1 3-n (OR 2) n wherein, Rf is an aryl group having 6 to 10 carbon atoms that may have an alkyl substituent having 1 to 5 carbon atoms, wherein 1, 2, 3, 4 or 6 hydrogen atoms are replaced with fluorine atoms, X represents a single bond, A represents a straight chain, branched chain or cyclic aliphatic divalent hydrocarbon group having 1 to 10 carbon atoms, or an aromatic divalent hydrocarbon group R 1 is a monovalent hydrocarbon group having 1 to 3 carbon atoms, R 2 represents a monovalent hydrocarbon group having 1 to 3 carbon atoms, an acetyl group, a propanoyl group, or a hydrogen atom, and n is an integer of 1 to 3, for a surface modifier for a transparent oxide electrode. Rf is an aryl group having 6 to 10 carbon atoms that may have an alkyl substituent having 1 to 5 carbon atoms, wherein 1, 2, 3, 4 or 6 hydrogen atoms are replaced with fluorine atoms, X represents a single bond, A represents a straight chain, branched chain or cyclic aliphatic divalent hydrocarbon group having 1 to 10 carbon atoms, or an aromatic divalent hydrocarbon group R 1 is a monovalent hydrocarbon group having 1 to 3 carbon atoms, R 2 represents a monovalent hydrocarbon group having 1 to 3 carbon atoms, an acetyl group, a propanoyl group, or a hydrogen atom, and n is an integer of 1 to 3, for a surface modifier for a transparent oxide electrode.
A method for generating a local oscillator signal having an adjustable duty cycle, the method comprising: dividing the frequency of the output of an oscillator to generate an in-phase divided signal and a quadrature divided signal; generating a first local oscillator signal by determining a first overlap interval between the in-phase divided signal and the quadrature divided signal, the first overlap interval defined by a first turn-on level and a first turn-off level; and adjusting the duty cycle of the first local oscillator signal by adjusting the first turn-on level or the first turn-off level. dividing the frequency of the output of an oscillator to generate an in-phase divided signal and a quadrature divided signal; generating a first local oscillator signal by determining a first overlap interval between the in-phase divided signal and the quadrature divided signal, the first overlap interval defined by a first turn-on level and a first turn-off level; and adjusting the duty cycle of the first local oscillator signal by adjusting the first turn-on level or the first turn-off level.
A method of producing a filter comprising: providing a substrate comprising holes for a fluid; and forming a photocatalyst film on a surface of the substrate; wherein the photocatalyst film comprises a tungsten oxide powder having an average particle diameter of 0.01 to 0.5 μm and a monoclinic crystal structure as its major phase, and is excitable by light having a wavelength of 430 to 500 nm, wherein the tungsten oxide powder is obtained by heat-treating ammonium paratungstate microparticles at 400°C to 600°C in air, and the tungsten oxide powder has a decomposition ability of 50% or more, wherein the decomposition ability is given by the following equation based on the following test: [Test for decomposition ability] 1g of a tungsten oxide powder and 20 ppm of acetaldehyde (amount A) are poured into a 3-liter glass container, and acetaldehyde (amount B) is measured after light having a peak wavelength of 460 nm ± 10 nm and an intensity of 1 to 5 mW/cm 2 is irradiated to the mixture for 2 hours to measure the decomposition ability (%): Decomposition ability % = acetaldehyde amount A − acetaldehyde amount B / acetaldehyde amount A × 100. providing a substrate comprising holes for a fluid; and forming a photocatalyst film on a surface of the substrate; wherein the photocatalyst film comprises a tungsten oxide powder having an average particle diameter of 0.01 to 0.5 μm and a monoclinic crystal structure as its major phase, and is excitable by light having a wavelength of 430 to 500 nm, wherein the tungsten oxide powder is obtained by heat-treating ammonium paratungstate microparticles at 400°C to 600°C in air, and the tungsten oxide powder has a decomposition ability of 50% or more, wherein the decomposition ability is given by the following equation based on the following test: [Test for decomposition ability] 1g of a tungsten oxide powder and 20 ppm of acetaldehyde (amount A) are poured into a 3-liter glass container, and acetaldehyde (amount B) is measured after light having a peak wavelength of 460 nm ± 10 nm and an intensity of 1 to 5 mW/cm 2 is irradiated to the mixture for 2 hours to measure the decomposition ability (%): Decomposition ability % = acetaldehyde amount A − acetaldehyde amount B / acetaldehyde amount A × 100.
Household electrical appliance, in particular food preparation household electrical appliance, comprising a unit and a power cord extending outside the unit, the unit having a lower part designed to rest on a support surface, the unit comprising an outer wall having an outer cavity to wind part of the power cord, the outer cavity being arranged outside the lower part, the outer cavity being formed in a bulged portion of the outer wall, characterised in that the outer wall has a convex outer portion surrounding the outer cavity.