mhurhangee/ep-ind-claims huggingface dataset:
A method for reporting uplink pilot interference, which is applied to a Time-Division Duplex, TDD system, comprising: measuring (101, 201, 301, 401, 501), by a base station, uplink pilot time slot interferences in all uplink time slots within respective cell portions of a service cell, wherein coverage areas of the respective cell portions are different portions of a geographical service area of the service cell; transmitting (102, 202, 302, 402, 502), by said base station, uplink pilot time slot interferences information about said uplink pilot time slot interferences to a radio network controller, wherein the uplink pilot time slot interference information carries therein an identity, ID of a home cell portion corresponding to said each uplink pilot time slot interference; and selecting (203, 303, 403), by said radio network controller, a transmitting position of an uplink pilot time slot for all said cell portions according to said uplink pilot time slot interferences and said IDs of home cell portions corresponding to said uplink pilot time slot interferences, wherein each of the respective cell portions refers to a specific antenna group coverage; and wherein the home cell portion refers to a cell portion related to the uplink pilot time slot interference among the respective cell portions. measuring (101, 201, 301, 401, 501), by a base station, uplink pilot time slot interferences in all uplink time slots within respective cell portions of a service cell, wherein coverage areas of the respective cell portions are different portions of a geographical service area of the service cell; transmitting (102, 202, 302, 402, 502), by said base station, uplink pilot time slot interferences information about said uplink pilot time slot interferences to a radio network controller, wherein the uplink pilot time slot interference information carries therein an identity, ID of a home cell portion corresponding to said each uplink pilot time slot interference; and selecting (203, 303, 403), by said radio network controller, a transmitting position of an uplink pilot time slot for all said cell portions according to said uplink pilot time slot interferences and said IDs of home cell portions corresponding to said uplink pilot time slot interferences, wherein each of the respective cell portions refers to a specific antenna group coverage; and wherein the home cell portion refers to a cell portion related to the uplink pilot time slot interference among the respective cell portions.
An attachment structure for an in-vehicle camera, the attachment structure being configured to attach an in-vehicle camera to an inner surface of a windshield of a vehicle, the attachment structure comprising: a first bracket fixed to the inner surface of the windshield; and a second bracket configured to hold an in-vehicle camera with respect to the first bracket when the second bracket is attached to the first bracket at an attachment position, wherein the first bracket includes a support portion (22, 24) and a first one-way engagement portion, the second bracket includes a pressing portion (52, 56) and a second one-way engagement portion, the pressing portion (52, 56) is configured to press a pressed portion (30, 32) of the in-vehicle camera against the support portion (22, 24) and to hold the pressed portion (30, 32) between the pressing portion (52, 56) and the support portion (22, 24) when the second bracket is at the attachment position, the second one-way engagement portion is configured to cooperate with the pressing portion (52, 56) to inhibit the second bracket from moving with respect to the first bracket when the second one-way engagement portion is engaged with the first one-way engagement portion; and the pressing portion (52, 56) has elasticity. a first bracket fixed to the inner surface of the windshield; and a second bracket configured to hold an in-vehicle camera with respect to the first bracket when the second bracket is attached to the first bracket at an attachment position, wherein the first bracket includes a support portion (22, 24) and a first one-way engagement portion, the second bracket includes a pressing portion (52, 56) and a second one-way engagement portion, the pressing portion (52, 56) is configured to press a pressed portion (30, 32) of the in-vehicle camera against the support portion (22, 24) and to hold the pressed portion (30, 32) between the pressing portion (52, 56) and the support portion (22, 24) when the second bracket is at the attachment position, the second one-way engagement portion is configured to cooperate with the pressing portion (52, 56) to inhibit the second bracket from moving with respect to the first bracket when the second one-way engagement portion is engaged with the first one-way engagement portion; and the pressing portion (52, 56) has elasticity.
Method for the preparation of a gelatin hydrolysate having a decreased endotoxin content, comprising the steps of: a. incubating a solution of gelatin of gelatin hydrolysate at a temperature of 70 - 125°C at a pH of 3.5 or less for a time period of at least 15 minutes, and b. recovering the gelatin hydrolysate. a. incubating a solution of gelatin of gelatin hydrolysate at a temperature of 70 - 125°C at a pH of 3.5 or less for a time period of at least 15 minutes, and b. recovering the gelatin hydrolysate.
A terminal comprising: a repetition unit that generates, for a Narrow Band-Internet of Things, NB-loT, repetitions of a data signal and repetitions of a demodulation reference signal, DMRS; a signal allocation unit that maps, in a plurality of subframes, the repetitions of DMRS to consecutive symbols; and a transmission unit that transmits an uplink signal including the DMRS and the data signal over the plurality of subframes, characterized in that the repetitions of DMRS are mapped to symbols other than symbols corresponding to an SRS resource candidate regardless of the number of repetitions, wherein a SRS resource candidate is a candidate for a resource to which a sounding reference signal, SRS, to be used to measure an uplink received signal quality is to be mapped. a repetition unit that generates, for a Narrow Band-Internet of Things, NB-loT, repetitions of a data signal and repetitions of a demodulation reference signal, DMRS; a signal allocation unit that maps, in a plurality of subframes, the repetitions of DMRS to consecutive symbols; and a transmission unit that transmits an uplink signal including the DMRS and the data signal over the plurality of subframes, characterized in that the repetitions of DMRS are mapped to symbols other than symbols corresponding to an SRS resource candidate regardless of the number of repetitions, wherein a SRS resource candidate is a candidate for a resource to which a sounding reference signal, SRS, to be used to measure an uplink received signal quality is to be mapped.
A propeller assembly comprising: a plurality of blades arranged in diametrically opposed pairs, each of the plurality of blades having an electrical deicer located thereon; a rotating slip ring; a stationary brush arranged in contact with the slip ring and configured to transfer electrical power from a power source to the slip ring; and an actuator having a movable portion configured to sequentially couple the electrical deicers of each pair of blades to the rotating slip ring; characterised in that: the electrical deicers of each pair of blades are coupled to the slip ring by a relay; the movable portion of the actuator includes a shaft coupled to a piston, the shaft including a cam surface configured to contact the armature of at least one relay; and the piston is arranged within the actuator, and the movable portion of the actuator is configured to move in and out of contact with each of the plurality of relays in response to a change in fluid pressure within the actuator. a plurality of blades arranged in diametrically opposed pairs, each of the plurality of blades having an electrical deicer located thereon; a rotating slip ring; a stationary brush arranged in contact with the slip ring and configured to transfer electrical power from a power source to the slip ring; and an actuator having a movable portion configured to sequentially couple the electrical deicers of each pair of blades to the rotating slip ring; characterised in that: the electrical deicers of each pair of blades are coupled to the slip ring by a relay; the movable portion of the actuator includes a shaft coupled to a piston, the shaft including a cam surface configured to contact the armature of at least one relay; and the piston is arranged within the actuator, and the movable portion of the actuator is configured to move in and out of contact with each of the plurality of relays in response to a change in fluid pressure within the actuator. the electrical deicers of each pair of blades are coupled to the slip ring by a relay; the movable portion of the actuator includes a shaft coupled to a piston, the shaft including a cam surface configured to contact the armature of at least one relay; and the piston is arranged within the actuator, and the movable portion of the actuator is configured to move in and out of contact with each of the plurality of relays in response to a change in fluid pressure within the actuator.
A vehicle for removing pieces of roadside litter from an area proximal to the vehicle, the vehicle comprising: an arm that is moveable into a litter collecting position; a collector located at a distal end of the arm and configured for collecting the piece of roadside litter; an arm control system whereby movement of the arm to respective pieces of roadside litter is controllable by an operator of the vehicle; a conduit for conveying collected pieces of roadside litter to a storage bin; characterised in that it further comprises a roadside litter locating system for mapping a location of the pieces of roadside litter in the area proximal to the vehicle, wherein the roadside litter locating system comprises: one or more cameras for recording a digital image of the area proximal to the vehicle and an image analyser for identifying the pieces of roadside litter in the digital image, wherein the image analyser comprises image recognition to recognise one or both of: predefined pieces of roadside litter, and predefined objects which are expected to be found in the area proximal to the vehicle. an arm that is moveable into a litter collecting position; a collector located at a distal end of the arm and configured for collecting the piece of roadside litter; an arm control system whereby movement of the arm to respective pieces of roadside litter is controllable by an operator of the vehicle; a conduit for conveying collected pieces of roadside litter to a storage bin; characterised in that it further comprises a roadside litter locating system for mapping a location of the pieces of roadside litter in the area proximal to the vehicle, wherein the roadside litter locating system comprises: one or more cameras for recording a digital image of the area proximal to the vehicle and an image analyser for identifying the pieces of roadside litter in the digital image, wherein the image analyser comprises image recognition to recognise one or both of: predefined pieces of roadside litter, and predefined objects which are expected to be found in the area proximal to the vehicle. one or more cameras for recording a digital image of the area proximal to the vehicle and an image analyser for identifying the pieces of roadside litter in the digital image, wherein the image analyser comprises image recognition to recognise one or both of: predefined pieces of roadside litter, and predefined objects which are expected to be found in the area proximal to the vehicle.
A touch sensor comprising: a substrate; a net-shaped electrode which is provided on the substrate and includes conductive wires arranged in a net form; and an outer edge wire which is provided in at least a part of an outer edge of the net-shaped electrode and is integrally formed with the net-shaped electrode, wherein the conductive wire includes a large-width portion which is provided in at least one of lateral parts of a connection portion and gradually widens according to approaching the outer edge wire, the conductive portion being a portion of the conductive wire which is connected to the outer edge wire, characterized in that Expressions and are satisfied: A ≤ 100 μ m B / A ≥ 1 / 2 wherein, in Expressions and, "A" is a width of the outer edge wire, and "B" is a largest width of the conductive wire in a portion where the large-width portion is provided. a substrate; a net-shaped electrode which is provided on the substrate and includes conductive wires arranged in a net form; and an outer edge wire which is provided in at least a part of an outer edge of the net-shaped electrode and is integrally formed with the net-shaped electrode, wherein the conductive wire includes a large-width portion which is provided in at least one of lateral parts of a connection portion and gradually widens according to approaching the outer edge wire, the conductive portion being a portion of the conductive wire which is connected to the outer edge wire, characterized in that Expressions and are satisfied: A ≤ 100 μ m B / A ≥ 1 / 2 wherein, in Expressions and, "A" is a width of the outer edge wire, and "B" is a largest width of the conductive wire in a portion where the large-width portion is provided.
Device for the automatic execution of an activity, in particular for the automatic cleaning of soiled surfaces, comprising at least one sensor for preventing a fall and at least one drive element, wherein the drive element defines a rear region and a front region of the device, relative to a direction of movement as intended, wherein the sensor is a mechanical sensor and is designed to detect a change in the level of the ground by contact with the ground and is arranged in the front area, characterized in that the sensor is arranged in the center of rotating brushes.
A method of customizing an article of footwear comprising: receiving a completed article of footwear including a completed upper attached to a sole structure; the completed upper including a first portion of the completed upper having a first thickness and a second portion of the completed upper having a second thickness; receiving a customization device, wherein the customization device can enter the first portion and wherein the customization device is prevented from entering the second portion; and wherein the customization device comprises a guide surface and a lower surface; the guide surface being spaced from the lower surface by a clearance distance; wherein the clearance distance is larger than the first thickness thereby permitting the guide surface and the lower surface to enter the first portion; and wherein the clearance distance is smaller than the second thickness thereby preventing the guide surface and the lower surface from entering the second portion; positioning the customization device to enter the first portion; and forming an opening in the first portion using the customization device so as to alter flexibility, stretch and auxetic effect of the first portion of the completed upper. receiving a completed article of footwear including a completed upper attached to a sole structure; the completed upper including a first portion of the completed upper having a first thickness and a second portion of the completed upper having a second thickness; receiving a customization device, wherein the customization device can enter the first portion and wherein the customization device is prevented from entering the second portion; and wherein the customization device comprises a guide surface and a lower surface; the guide surface being spaced from the lower surface by a clearance distance; wherein the clearance distance is larger than the first thickness thereby permitting the guide surface and the lower surface to enter the first portion; and wherein the clearance distance is smaller than the second thickness thereby preventing the guide surface and the lower surface from entering the second portion; wherein the customization device comprises a guide surface and a lower surface; the guide surface being spaced from the lower surface by a clearance distance; wherein the clearance distance is larger than the first thickness thereby permitting the guide surface and the lower surface to enter the first portion; and wherein the clearance distance is smaller than the second thickness thereby preventing the guide surface and the lower surface from entering the second portion; positioning the customization device to enter the first portion; and forming an opening in the first portion using the customization device so as to alter flexibility, stretch and auxetic effect of the first portion of the completed upper.
Non-therapeutical use of a compound of formula. wherein R 1, R 2, R 4 and R 5 are H, R 3 is benzyl and n is 1 or a cosmetically acceptable salt thereof for revitalizing, strengthening and increasing the integrity of collagen fibers, increasing skin elasticity and/or resiliency, improving skin moisturization and/ or skin firmness and/or reducing skin pore size.
A method of preparing a polymer modified pigment comprising the steps of: i) combining, in any order, a modified pigment comprising a pigment having attached at least one reactive group, a polymer comprising at least one functional group, the polymer having an acid number ranging from 30 to 150, and a non-reactive diluent, to form a reaction mixture, wherein the functional group of the polymer is capable of reacting with the reactive group of the modified pigment and wherein the non-reactive diluent and the polymer are combined in a ratio of at least 1 part by weight of non-reactive diluent to 1 part by weight of polymer; wherein the non-reactive diluent is selected from a non-water miscible oil or resin, a salt having a melting point less than or equal to 120°C, a water soluble non-acidic polymer, and a solvent having a boiling point greater than or equal to 110°C; ii) reacting the polymer and the modified pigment in the reaction mixture to form a mixture comprising the polymer modified pigment and the non-reactive diluent; and iii) removing the non-reactive diluent from the mixture to form the polymer modified pigment, wherein the polymer modified pigment comprises the pigment having attached at least one polymeric group, and wherein the polymeric group comprises the polymer. i) combining, in any order, a modified pigment comprising a pigment having attached at least one reactive group, a polymer comprising at least one functional group, the polymer having an acid number ranging from 30 to 150, and a non-reactive diluent, to form a reaction mixture, wherein the functional group of the polymer is capable of reacting with the reactive group of the modified pigment and wherein the non-reactive diluent and the polymer are combined in a ratio of at least 1 part by weight of non-reactive diluent to 1 part by weight of polymer; wherein the non-reactive diluent is selected from a non-water miscible oil or resin, a salt having a melting point less than or equal to 120°C, a water soluble non-acidic polymer, and a solvent having a boiling point greater than or equal to 110°C; ii) reacting the polymer and the modified pigment in the reaction mixture to form a mixture comprising the polymer modified pigment and the non-reactive diluent; and iii) removing the non-reactive diluent from the mixture to form the polymer modified pigment, wherein the polymer modified pigment comprises the pigment having attached at least one polymeric group, and wherein the polymeric group comprises the polymer.
Conveyor device with a series of conveyor units (2.1-2.12) that can be driven to move along a conveyor line, wherein each conveyor unit (2.1-2.12) has a conveyor carriage, a selectively controllable load-handling device which is held on the conveyor carriage for the receiving and targeted delivery of a conveyed item, a control unit for actuating the load-handling device and a communication interface for receiving control information, wherein the communication interfaces are divided into master communication interfaces and slave communication interfaces, wherein each master communication interface comprises a wireless communication interface and wherein each master communication interface and each slave communication interface comprise a wired communication interface and each slave communication interface is set up to receive control information from an assigned master communication interface via corresponding wired communication interfaces, characterised in that the conveyor device is set up to forward control information from a first master communication interface to a second master communication interface during operation, further comprising a control device that is set up to monitor the positions of the series of conveyor units during operation and to forward control information addressed to the second master communication interface to the first master communication interface if the control device establishes that the second master communication interface is in a predetermined area, wherein the control device has a wireless communication interface and is set up to transmit the control information to the master communication interfaces and wherein the predetermined area is an area in which direct wireless transmission of control information from the wireless communication interface of the control device to a master communication interface of a conveyor unit (2.5) located in the predetermined area is not possible.
A method of producing an electro-optic device having at least one optically transparent conducting layer comprising the steps of: providing a composite substrate that includes an optically transparent and electrically insulating base substrate and an electrically conducting grid disposed in a plurality of grooves located in the base substrate; providing an electro-optical module having at least one transparent conducting layer; (722, 725) and attaching said composite substrate onto said electro-optic module such that electrical contact is established between said grid and said transparent conducting layer (722, 725) of the electro-optic module, characterized in that said grooves have a cross-sectional shape comprising a plurality of sides, two of which form an apex defined by an angle less than acos(l/n), where n is the refractive index of the base substrate, wherein said composite substrate includes an optically reflective material filling said grooves and wherein said grooves have a triangular cross-section. providing a composite substrate that includes an optically transparent and electrically insulating base substrate and an electrically conducting grid disposed in a plurality of grooves located in the base substrate; providing an electro-optical module having at least one transparent conducting layer; (722, 725) and attaching said composite substrate onto said electro-optic module such that electrical contact is established between said grid and said transparent conducting layer (722, 725) of the electro-optic module, characterized in that said grooves have a cross-sectional shape comprising a plurality of sides, two of which form an apex defined by an angle less than acos(l/n), where n is the refractive index of the base substrate, wherein said composite substrate includes an optically reflective material filling said grooves and wherein said grooves have a triangular cross-section.