mhurhangee/ep-ind-claims huggingface dataset:
Method for measuring and assessing the functions and shape of a shoe, in particular a sports shoe such as a running shoe or ski boot, wherein the user of the shoe, while wearing the shoe on the foot without the shoe being provided with sensors, stands on a measuring surface and/or walks or runs over a measuring surface, said measuring surface comprising a plurality of pressure sensors whose pressure values recorded in relation to the measured shoe are evaluated by a computer program, and wherein the shape, the dimensions and/or the materials of the bottom part of the shoe are determined according to the recorded pressure values, and a shoe is produced on the basis of the generated data.
A method of bending or drawing a fiber-reinforced composite panel into a shape, by using a lower metallic die and an upper metallic die, wherein the method comprises the steps of: 1.1 putting a metal plate on at least one side face of the fiber-reinforced composite panel; 1.2 placing the fiber-reinforced composite panel with the metal plate between the dies (11, 12) in a state where at least one side face of the fiber-reinforced composite panel is in contact with the metal plate; 1.3 heating the metal plate so that the fiber-reinforced composite panel is heated indirectly by the metal plate; 1.4 closing and clamping the dies (11, 12) so that the fiber-reinforced composite panel and the metal plate are bent or drawn into the V-shape or the U-shape or the concave shape; 1.5 opening the dies (11, 12); and 1.6 detaching the metal plate from the fiber-reinforced composite panel characterized in that the shape is a V-shape or a U-shape or a concave shape and that the bending or drawing is performed by the upper and the lower die. 1.1 putting a metal plate on at least one side face of the fiber-reinforced composite panel; 1.2 placing the fiber-reinforced composite panel with the metal plate between the dies (11, 12) in a state where at least one side face of the fiber-reinforced composite panel is in contact with the metal plate; 1.3 heating the metal plate so that the fiber-reinforced composite panel is heated indirectly by the metal plate; 1.4 closing and clamping the dies (11, 12) so that the fiber-reinforced composite panel and the metal plate are bent or drawn into the V-shape or the U-shape or the concave shape; 1.5 opening the dies (11, 12); and 1.6 detaching the metal plate from the fiber-reinforced composite panel
A knitting machine having a yarn guide apparatus for offset knitting whereby the yarn guide apparatus comprises: a yarn guide apparatus main body provided with a yarn inlet and a yarn outlet; a guide plate disposed at a lower side portion of the yarn guide apparatus main body; a projected portion formed at a lower side portion of the guide plate and having an upper edge curved face, characterized in that the yarn guide apparatus comprises a perpendicular portion situated at a side portion of the guide plate, and an inclined portion formed at a bottom portion of the guide plate and inclined downward toward the perpendicular portion, wherein a height of projection of said projected portion in a rear face direction being gradually increased in a yarn feed direction, and said upper edge curved face being formed such that the projected portion has a width that is increased toward the yarn outlet. a yarn guide apparatus main body provided with a yarn inlet and a yarn outlet; a guide plate disposed at a lower side portion of the yarn guide apparatus main body; a projected portion formed at a lower side portion of the guide plate and having an upper edge curved face,
An orally ingestible chewable composition suitable for decreasing oxidative stress caused by exposure to ultraviolet light B on a skin surface of an individual comprising: a) Vitamin C; b) Vitamin E; c) an extract of green tea having an epigallocatchin (EGCG) content of at least 20%; and gallic acid. a) Vitamin C; b) Vitamin E; c) an extract of green tea having an epigallocatchin (EGCG) content of at least 20%; and gallic acid.
A method of making a vacuum insulated glass unit, the method comprising: providing a sealing material on a first glass substrate and/or a second glass substrate, the material comprising at least a frit material and a binder solution; providing the first and second glass substrates in substantially parallel, spaced apart relation to one another, where the sealing material is provided on at least one of the glass substrates, and a gap being defined between the first and second substrates, and wherein at least a portion of the sealing material is located between the first and second glass substrates; applying energy to the frit material so as to melt the frit material at least at a melting temperature, the melting temperature being less than 400 degrees C, wherein the applying of the energy substantially burns off the binder solution of the sealing material, and wherein after the energy is applied the first and second glass substrates are sealed to each other, and wherein the frit material is formed from a base composition including: Ingredient Normalized Mole % vanadium oxide 45-50%, barium oxide 20-23 %, and zinc oxide 19-22%. providing a sealing material on a first glass substrate and/or a second glass substrate, the material comprising at least a frit material and a binder solution; providing the first and second glass substrates in substantially parallel, spaced apart relation to one another, where the sealing material is provided on at least one of the glass substrates, and a gap being defined between the first and second substrates, and wherein at least a portion of the sealing material is located between the first and second glass substrates; applying energy to the frit material so as to melt the frit material at least at a melting temperature, the melting temperature being less than 400 degrees C, wherein the applying of the energy substantially burns off the binder solution of the sealing material, and wherein after the energy is applied the first and second glass substrates are sealed to each other, and wherein the frit material is formed from a base composition including: Ingredient Normalized Mole % vanadium oxide 45-50%, barium oxide 20-23 %, and zinc oxide 19-22%.
An auto-balancing transportation device (10, 110, 210, 310), comprising: a first foot platform section having a first foot platform, a first wheel (31, 131, 231), a first drive motor and a first sensor; a second foot platform section having a second foot platform, a second wheel (21, 121, 221, 321), a second drive motor and a second sensor; a control circuit that drives the first wheel towards auto-balancing the first foot platform section based on data from the first sensor and that drives the second wheel towards auto-balancing the second platform section based on data from the second sensor; and a coupling structure (50, 150) that couples the first foot platform section and the second foot platform section to one another such that the first and second platform sections are movable in fore-aft tilt relative to one another; and a battery (48, 148); wherein the coupling structure is configured to define a cavity (49, 249, 349) that holds the battery, characterized in that the first wheel is entirely located vertically under the first foot platform and the second wheel is entirely located vertically under the second foot platform. a first foot platform section having a first foot platform, a first wheel (31, 131, 231), a first drive motor and a first sensor; a second foot platform section having a second foot platform, a second wheel (21, 121, 221, 321), a second drive motor and a second sensor; a control circuit that drives the first wheel towards auto-balancing the first foot platform section based on data from the first sensor and that drives the second wheel towards auto-balancing the second platform section based on data from the second sensor; and a coupling structure (50, 150) that couples the first foot platform section and the second foot platform section to one another such that the first and second platform sections are movable in fore-aft tilt relative to one another; and a battery (48, 148); wherein the coupling structure is configured to define a cavity (49, 249, 349) that holds the battery, characterized in that the first wheel is entirely located vertically under the first foot platform and the second wheel is entirely located vertically under the second foot platform.
A compound selected from the group of N -(4-fluorophenyl)-7-(6-fluoroquinolin-4-yl)spiro[3.5]nonane-2-carboxamide, N -(4-chlorophenyl)-7-(6-fluoroquinoline-4-yl)-2-azaspiro [3.5] nonane-2-carboxamide, N -(4-bromophenyl)-7-(6-fluoroquinoline-4-yl)-2-azaspiro [3.5] nonane-2-carboxamide, N -(4-cyanophenyl)-7-(6-fluoroquinoline-4-yl)-2-azaspiro [3.5] nonane-2-carboxamide, and N -(4-fluorophenyl)-7-(6-fluoroquinoline-4-yl)-2-azaspiro [3.5] nonane-2-carboxamide or their stereoisomers or tautomers, or pharmaceutically-acceptable salts. N -(4-fluorophenyl)-7-(6-fluoroquinolin-4-yl)spiro[3.5]nonane-2-carboxamide, N -(4-chlorophenyl)-7-(6-fluoroquinoline-4-yl)-2-azaspiro [3.5] nonane-2-carboxamide, N -(4-bromophenyl)-7-(6-fluoroquinoline-4-yl)-2-azaspiro [3.5] nonane-2-carboxamide, N -(4-cyanophenyl)-7-(6-fluoroquinoline-4-yl)-2-azaspiro [3.5] nonane-2-carboxamide, and N -(4-fluorophenyl)-7-(6-fluoroquinoline-4-yl)-2-azaspiro [3.5] nonane-2-carboxamide or their stereoisomers or tautomers, or pharmaceutically-acceptable salts.
A method for providing feedback control, comprising: producing a plurality of RFID assemblies on a web; attaching each one of a plurality of RFID chips (10; 20) to a respective RFID assembly of said plurality of RFID assemblies, using at least one parameter defining how each of the plurality of RFID chips (10; 20) is attached to the respective one of the plurality of RFID assemblies; transporting the plurality of RFID assemblies to a measurement system (110; 210; 320); measuring at least one physical property of the respective one of the plurality of RFID assemblies via contact points (42; 112) of the measurement system (110; 210; 320); characterized in the steps: communicating a measurement of the least one physical property to a computing device; computing an average value of the at least one physical property over said plurality of RFID assemblies; and changing at least one of the at least one parameters defining how the each one of the plurality of RFID chips (10; 20) is attached to the respective one of the plurality of RFID assemblies in response to the calculated average value of the at least one physical property, the change in the at least one of its parameters causing a change in the measured physical property. producing a plurality of RFID assemblies on a web; attaching each one of a plurality of RFID chips (10; 20) to a respective RFID assembly of said plurality of RFID assemblies, using at least one parameter defining how each of the plurality of RFID chips (10; 20) is attached to the respective one of the plurality of RFID assemblies; transporting the plurality of RFID assemblies to a measurement system (110; 210; 320); measuring at least one physical property of the respective one of the plurality of RFID assemblies via contact points (42; 112) of the measurement system (110; 210; 320); characterized in the steps: communicating a measurement of the least one physical property to a computing device; computing an average value of the at least one physical property over said plurality of RFID assemblies; and changing at least one of the at least one parameters defining how the each one of the plurality of RFID chips (10; 20) is attached to the respective one of the plurality of RFID assemblies in response to the calculated average value of the at least one physical property, the change in the at least one of its parameters causing a change in the measured physical property. communicating a measurement of the least one physical property to a computing device; computing an average value of the at least one physical property over said plurality of RFID assemblies; and changing at least one of the at least one parameters defining how the each one of the plurality of RFID chips (10; 20) is attached to the respective one of the plurality of RFID assemblies in response to the calculated average value of the at least one physical property, the change in the at least one of its parameters causing a change in the measured physical property.
Locking assembly for a motorised vehicle, having a central locking device for at least one lockable stowage compartment, said central locking device having an open state, in which access to the stowage compartment is possible, and a closed state, in which access to the stowage compartment is prevented, and having at least one moveable arresting element, which assumes a first position in the closed state and a second position in the open state, and having a closing mechanism for the stowage compartment, said closing mechanism keeping the stowage compartment closed and comprising an opening portion, which can be moved by manual actuation, along a path from an open position into a closed position, and vice versa, wherein, in the closed state of the central locking device and with the opening portion in the closed position, the arresting element in its first position, said arresting element belonging to the central locking device, blocks the opening portion against movement into the open position and locks the same, characterized in that, in the closed state of the central locking device and with the opening portion in the open position, the arresting element in its first position, said arresting element belonging to the central locking device, blocks the opening portion against movement into the closed position.
A breastpump having a breastshield having a portion within which a woman's breast is received for the expression of milk, a source of vacuum in communication with said breastshield and a mechanism for operating said source of vacuum according to a first sequence, characterized in that the breastpump comprises a preset program for operating the source of vacuum according to a second sequence, the second sequence being a pre-programmed let-down sequence adapted for let-down (for stimulating a milk ejection reflex), in that the breastpump comprises a separate milk-let down button, which is visible on a casing of the breastpump and which is used to activate the pre-programmed let-down sequence, and in that the let-down sequence utilizes a vacuum range of about 50 to about 150 mmHg with cycles ranging between about 80 to about 160 per minute.
An ironing apparatus comprising a heatable iron soleplate and a steam generating system coupleable thereto having a heatable steam boiler for generating steam which can be guided and discharged via a steam pressure valve by means of steam lines to steam outlet holes in the heatable iron soleplate of the ironing apparatus, and a controller connected to the steam generating system via a coupling, characterized in that the controller is adapted to automatically discharge the steam at predetermined intermittent steam discharging intervals of one cycle, wherein a duty cycle of the predetermined intermittent steam discharging interval corresponds to a duty cycle of an interval ranging from more than 10 % to less than 90 %, preferably to a duty cycle of an interval ranging from more than 40 % to less than 80 %, wherein the value of the frequency of an interval corresponds to more than 0.5 steam discharging intervals per second and less than 5 steam discharging intervals per second.
A compound of Formula I: wherein n is 1-8; p is 2-4; X is -(CH 2) q NH-A, -(CH 2) q NH-A-B, -(CH 2) q NH-A-W-B, -A, -A-B, -A-W-B, -W-A, -W-A-B, or -W-A-W-B, wherein A is a peptide comprising two or more amino acids, B is a cell-targeting construct selected from an antibody and a peptide, W is a coupling moiety selected from the group consisting of -(CH 2) m NH-, -C (CH 2) m C -, -C (CH 2) m -, or m is 1-16 and q is 1-8; Z is hydrogen, methyl, or, when n is 2 and R 2 is -(CH 2) 2 -, Z is a bond between R 2 and the nitrogen to which Z is attached; R 1 is selected from the group consisting of hydrogen, alkyl, alkyoxy, alkynoyl, alkylthiol, formyl, halogen, aryl, nitro, sulfanyl, hydrazino, amino, oxyamino, alkylamino, and dialkylamino; and R 2 is selected from the group consisting of hydrogen, alkyl, alkyoxy, alkynoyl, alkylthiol, formyl, halogen, aryl, nitro, sulfanyl, hydrazino, amino, oxyamino, alkylamino, and dialkylamino, or R 2 is -(CH 2) 2 -. wherein n is 1-8; p is 2-4; X is -(CH 2) q NH-A, -(CH 2) q NH-A-B, -(CH 2) q NH-A-W-B, -A, -A-B, -A-W-B, -W-A, -W-A-B, or -W-A-W-B, wherein A is a peptide comprising two or more amino acids, B is a cell-targeting construct selected from an antibody and a peptide, W is a coupling moiety selected from the group consisting of -(CH 2) m NH-, -C (CH 2) m C -, -C (CH 2) m -, or m is 1-16 and q is 1-8; Z is hydrogen, methyl, or, when n is 2 and R 2 is -(CH 2) 2 -, Z is a bond between R 2 and the nitrogen to which Z is attached; R 1 is selected from the group consisting of hydrogen, alkyl, alkyoxy, alkynoyl, alkylthiol, formyl, halogen, aryl, nitro, sulfanyl, hydrazino, amino, oxyamino, alkylamino, and dialkylamino; and R 2 is selected from the group consisting of hydrogen, alkyl, alkyoxy, alkynoyl, alkylthiol, formyl, halogen, aryl, nitro, sulfanyl, hydrazino, amino, oxyamino, alkylamino, and dialkylamino, or R 2 is -(CH 2) 2 -.
Method for controlling a digital electrical model track including model track articles which each comprise a decoder that is addressable by means of a decoder address and also at least one control unit, wherein command messages which are assembled bit-by-bit in a packet format are sent to the decoders by the at least one control unit, which command messages each comprise an address section followed by a command section, wherein an item of check information is sent as a component of the command message and, on the basis thereof, a check in regard to the correct receipt of the command message is effected by the decoder, wherein a check section of the command message containing the item of check information is sent after the command section at the end of the command message, wherein an item of test information is formed on the basis of items of information contained in the address section and in the command section and the item of test information is checked for agreement with the item of check information, and wherein an acknowledgement message is sent to the at least one control unit by a decoder which considers that it has been addressed by the command message, characterized in that the sending of the acknowledgement message is begun after the receipt of the address section and at the latest by the conclusion of the command message.
An apparatus for removing sulfur dioxide from a flue gas, the apparatus comprising: a housing defining a scrubbing chamber and a regeneration chamber separated from the scrubbing chamber by a separating wall having an open region to provide a hydraulic communication between the scrubbing chamber and the regeneration chamber through a pool common to the scrubbing chamber and the regeneration chamber and comprising a molten eutectic mixture of lithium, sodium and potassium carbonates, the scrubbing chamber comprising: a flue gas inlet port configured for receiving an ingress flow of said flue gas, and a scrubbed gas outlet port configured for discharging an egress flow of a scrubbed gas from the scrubbing chamber; the scrubbing chamber being configured for scrubbing the flue gas by absorbing the sulfur dioxide in the pool to form a molten mixture of carbonates, sulfites and sulfates in the pool; the regeneration chamber comprising a regeneration chamber heater configured to heat and maintain said molten mixture of carbonates, sulfites and sulfates at a second predetermined temperature, and to produce a sulfur-containing vapor; and comprising a sulfur-containing vapor outlet port configured for controllable release of the sulfur-containing vapor obtained therein; and a sulfur-containing material collector coupled to said sulfur-containing vapor outlet port via a cooling manifold configured for cooling down said sulfur-containing vapor, and thereby converting said sulfur-containing vapor into a liquid and solid phase materials. a housing defining a scrubbing chamber and a regeneration chamber separated from the scrubbing chamber by a separating wall having an open region to provide a hydraulic communication between the scrubbing chamber and the regeneration chamber through a pool common to the scrubbing chamber and the regeneration chamber and comprising a molten eutectic mixture of lithium, sodium and potassium carbonates, the scrubbing chamber comprising: a flue gas inlet port configured for receiving an ingress flow of said flue gas, and a scrubbed gas outlet port configured for discharging an egress flow of a scrubbed gas from the scrubbing chamber; the scrubbing chamber being configured for scrubbing the flue gas by absorbing the sulfur dioxide in the pool to form a molten mixture of carbonates, sulfites and sulfates in the pool; the regeneration chamber comprising a regeneration chamber heater configured to heat and maintain said molten mixture of carbonates, sulfites and sulfates at a second predetermined temperature, and to produce a sulfur-containing vapor; and comprising a sulfur-containing vapor outlet port configured for controllable release of the sulfur-containing vapor obtained therein; and a sulfur-containing material collector coupled to said sulfur-containing vapor outlet port via a cooling manifold configured for cooling down said sulfur-containing vapor, and thereby converting said sulfur-containing vapor into a liquid and solid phase materials.
An industrial truck with a vehicle frame which is covered by at least one cladding section (9, 10, 11), said industrial truck being provided with at least one control and/or display element (7, 8) which is accessible through a recess (14, 15) in the cladding section or protrudes from the cladding section, wherein a component carrier is provided, said component carrier being connected to the vehicle frame and having means (3, 4) for fastening the at least one cladding section and the at least one control and/or display element, wherein at least one control element and/or one display element is mounted as a premounted assembly on the component carrier, characterized in that the component carrier has bearing portions and one of the cladding sections has two clips which are pivotably mounted in the bearing portions.