mhurhangee/ep-ind-claims huggingface dataset:
A stationary blade for a blade set of a hair cutting appliance, said blade set being arranged to be moved through hair in a moving direction to cut hair, said blade comprising - a first wall portion arranged to serve as a skin facing wall portion during operation, and a second wall portion, each wall portion defining - a first surface (80, 82, 84), - a second surface (86, 88, 90) facing away from the first surface (80, 82, 84), and - at least one toothed leading edge (32, 34) comprising a plurality of mutually spaced apart projections provided with respective tips, wherein the toothed leading edge (32, 34) at least partially extends in a transverse direction (Y, t) relative to the moving direction assumed during operation, wherein the mutually spaced apart projections at least partially extend forwardly in a longitudinal direction (X, r) approximately perpendicular to the transverse direction (Y, t), wherein the first surfaces (80, 82) of the first wall portion and the second wall portion face each other, at least at their leading edges (32, 34), wherein facing projections along the leading edges (32, 34) of the first and second wall portions are mutually connected at their tips to define a plurality of teeth, characterized in that the first surfaces (80, 82) of the first wall portion and the second wall portion define therebetween a guide slot for a movable blade of said blade set, wherein the first wall portion, at the second surface thereof, comprises a smoothed transitional region, at least at the forwardly extending projections, wherein the transitional region extends rearwardly from a substantially flat region of the first wall portion towards the second wall portion, thereby transitioning from the substantially flat region to respective tips of the forwardly extending projections, wherein the transitional region comprises a tip rounding at the teeth, wherein the tip rounding comprises at least a first edge rounding (R t1) and a second edge rounding (R t2), wherein the tip rounding is further tangentially connected to the second surface of the second wall portion, and wherein a ratio between the radii of the first edge rounding (R t1) and the second edge rounding (R t2) is greater than about 1.5:1, preferably greater than about 2:1, more preferably greater than about 2.5:1. - a first wall portion arranged to serve as a skin facing wall portion during operation, and a second wall portion, each wall portion defining - a first surface (80, 82, 84), - a second surface (86, 88, 90) facing away from the first surface (80, 82, 84), and - at least one toothed leading edge (32, 34) comprising a plurality of mutually spaced apart projections provided with respective tips, - a first surface (80, 82, 84), - a second surface (86, 88, 90) facing away from the first surface (80, 82, 84), and - at least one toothed leading edge (32, 34) comprising a plurality of mutually spaced apart projections provided with respective tips,
Method for managing the allocation, by a server of a wide area communication network, of a first list of carrier frequencies that can be used by an electronic device connected to said network for sending messages, the server receiving said messages, the method being executed by the server, the method comprising the steps of: - determining a second list of carrier frequencies, this list corresponding to a list of predetermined frequencies, - receiving (300, 305) a first message coming from the electronic device, the first message having been sent on a first carrier frequency that is not included in the second list, - determining (325, 335, 345) the value of a quality parameter associated with the first message received, - when the value of a second quality parameter, calculated according to the first quality parameter, exceeds the value of a first threshold: ∘ determining a first sub-list of the second list, comprising at least one second carrier frequency, the second carrier frequency not being included in the first list, ∘ determining a second sub-list of the first list, comprising at least one third frequency, the third carrier frequency not being included in the second list, the first sub-list and the second sub-list comprising the same number of carrier frequencies, - sending to the electronic device a second message comprising at least one command, the command making it possible to replace the carrier frequencies of the second sub-list with the carrier frequencies of the first sub-list. - determining a second list of carrier frequencies, this list corresponding to a list of predetermined frequencies, - receiving (300, 305) a first message coming from the electronic device, the first message having been sent on a first carrier frequency that is not included in the second list, - determining (325, 335, 345) the value of a quality parameter associated with the first message received, - when the value of a second quality parameter, calculated according to the first quality parameter, exceeds the value of a first threshold: ∘ determining a first sub-list of the second list, comprising at least one second carrier frequency, the second carrier frequency not being included in the first list, ∘ determining a second sub-list of the first list, comprising at least one third frequency, the third carrier frequency not being included in the second list, the first sub-list and the second sub-list comprising the same number of carrier frequencies, ∘ determining a first sub-list of the second list, comprising at least one second carrier frequency, the second carrier frequency not being included in the first list, ∘ determining a second sub-list of the first list, comprising at least one third frequency, the third carrier frequency not being included in the second list, - sending to the electronic device a second message comprising at least one command, the command making it possible to replace the carrier frequencies of the second sub-list with the carrier frequencies of the first sub-list.
Production method for machines for the beverage industry, taken from the group of cleaning machines, pasteurization machines, shrink tunnels or the like, wherein the components of the machine are assembled by welding processes and by detachable connections from individual parts and/or modules, wherein at least the following steps are run through: a) Provision of a mounting device that is not part of the machine, comprising at least one mounting element, by means of which at least one of the side walls of the machine can be supported or carried, b) Provision and alignment of at least a part of a first machine side wall, c) Provision and alignment of at least a part of a second opposite machine side wall at a distance interval which is slightly greater than the distance interval which the side walls of the complete assembly exhibit to one another, d) Positioning of centre mounting parts between the side walls, wherein at least one of the side walls comprises support elements, by means of which at least a part number of the centre mounting parts can be held and/or carried by these, e) Closure of the machine by pressing the opposed side surfaces against one another, f) Welding of at least a part of the centre mounting parts to the side surfaces, wherein ideally laser or electron beam welding methods are used, characterised in that g) at least one centre mounting part is connected to at least one side wall, and in particular with two side walls, by means of adhesive bonding and riveting methods. a) Provision of a mounting device that is not part of the machine, comprising at least one mounting element, by means of which at least one of the side walls of the machine can be supported or carried, b) Provision and alignment of at least a part of a first machine side wall, c) Provision and alignment of at least a part of a second opposite machine side wall at a distance interval which is slightly greater than the distance interval which the side walls of the complete assembly exhibit to one another, d) Positioning of centre mounting parts between the side walls, wherein at least one of the side walls comprises support elements, by means of which at least a part number of the centre mounting parts can be held and/or carried by these, e) Closure of the machine by pressing the opposed side surfaces against one another, f) Welding of at least a part of the centre mounting parts to the side surfaces, wherein ideally laser or electron beam welding methods are used, characterised in that g) at least one centre mounting part is connected to at least one side wall, and in particular with two side walls, by means of adhesive bonding and riveting methods.
A reinforcement system comprising: an AR-glass fibrous layer embedded in an inorganic matrix, characterized in that said AR-glass fibrous layer has a sizing applied thereon, the sizing comprising an epoxy polymer, vinyl and amine coupling agents, and a non-ionic surfactant.
A pressure sensor for a tyre pressure monitoring system (TPMS), with: a housing (5a, 5b), which is formed from at least two housing parts, a circuit board with electronic components arranged thereon, wherein the electronic components form at least one circuit for detecting a gas pressure and a wireless transmission of measured data to a remote receiving device, a battery for supplying power to the electronic components, wherein the battery and the circuit board are arranged in a stack and are accommodated in the housing (5a, 5b), wherein an elastic compensating element made of an electrically insulating material is arranged between the battery and the printed circuit board, which compensating element bears against one side of the battery and the circuit board in each case, and characterised in that, the battery is supported on the housing (5a, 5b) on a side facing away from the compensating element. a housing (5a, 5b), which is formed from at least two housing parts, a circuit board with electronic components arranged thereon, wherein the electronic components form at least one circuit for detecting a gas pressure and a wireless transmission of measured data to a remote receiving device, a battery for supplying power to the electronic components, wherein the battery and the circuit board are arranged in a stack and are accommodated in the housing (5a, 5b), wherein an elastic compensating element made of an electrically insulating material is arranged between the battery and the printed circuit board, which compensating element bears against one side of the battery and the circuit board in each case, and characterised in that, the battery is supported on the housing (5a, 5b) on a side facing away from the compensating element.
A method for transmitting data in an Orthogonal Frequency Division Multiplexing, OFDM, system using a plurality of transmission antennas (530, 532, 534), the method comprising: generating a plurality of training symbol groups to perform channel estimation corresponding to the plurality of transmission antennas, by grouping a plurality of training symbols into the plurality of training symbol groups according to frequencies of the training symbols in such a way that consecutive training symbols belong to different training symbol groups; and transmitting at least one training symbol group from among the plurality of training symbol groups once using one transmission antenna from among the plurality of transmission antennas at different predetermined time intervals. generating a plurality of training symbol groups to perform channel estimation corresponding to the plurality of transmission antennas, by grouping a plurality of training symbols into the plurality of training symbol groups according to frequencies of the training symbols in such a way that consecutive training symbols belong to different training symbol groups; and transmitting at least one training symbol group from among the plurality of training symbol groups once using one transmission antenna from among the plurality of transmission antennas at different predetermined time intervals.
An ambient,defined as a temperature in the range of 2 - 60 °C and a relative humidity in the range of 1-100%, curable coating composition comprising a mixture of components comprising: (a) a polysiloxane having a Mw of at least 20,000 as determined by gel permeation chromatography using polystyrene standard; (b) an alkoxy functional polysiloxane; and (c) an inorganic corrosion inhibitor. (a) a polysiloxane having a Mw of at least 20,000 as determined by gel permeation chromatography using polystyrene standard; (b) an alkoxy functional polysiloxane; and (c) an inorganic corrosion inhibitor.
Device for cleaning plastic chips, comprising a container for the reception of the plastic chips and a stirring device rotatably arranged about a rotational axis in the container for stirring the plastic chips, wherein the stirring device has a rotational body that extends along the rotational axis, which is composed of rotational body walls, wherein the rotational body has a cross section perpendicular to the rotational axis, the distance between the circumferential line of the cross section of the rotational body and the rotational axis varies along the circumferential line of the cross section of the rotational body, the container has a cross section perpendicular to the rotational axis and the distance between the circumferential line of the cross section of the container and the rotational axis varies along the circumferential line of the cross section of the container.
A triphenylamine derivative represented by general formula: wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12, R 13, R 14, and R 15 each independently represent a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, or an alkoxy group having 1 to 6 carbon atoms.
A power supply box for a hybrid power rail vehicle, comprising: a closed box body with an accommodating cavity formed therein, and a power pack accommodated within the box body; wherein a blowing pipe is fixedly arranged on one side outside the box body, wherein, the blowing pipe is provided with an inlet for inflow of a cooling gas and at least one blowing branch pipe, and the blowing pipe is communicated with the box body via the blowing branch pipe; a discharging pipe is fixedly arranged on other side outside the box body, wherein, the discharging pipe is provided with an outlet for outflow of the gas having absorbed heat and at least one discharging branch pipe, characterized in that the discharging pipe is communicated with the box body via the discharging branch pipe at the side facing away from the blowing branch pipe; wherein the number of each of the blowing pipe and the discharging pipe is at least two, and the at least two blowing pipes and the at least two discharging pipes are arranged in a one-to-one correspondence manner; wherein, the box body is in a cuboid shape, and comprises a first sidewall and an opposed second sidewall, the blowing branch pipe is communicated with the first sidewall, and the discharging branch pipe is communicated with the second sidewall; and wherein the first sidewall is to be mounted upward and the second sidewall is mounted downward onto a vehicle body of a hybrid power rail vehicle comprising the power supply box, or the second sidewall is to be mounted upward and the first sidewall is mounted downward onto the vehicle body.
A forklift comprising: a transmission which outputs power of which the speed is changed to a first speed or a second speed; a pump which is operated by the power and discharges pressurized hydraulic oil; a traveling priority valve which is controlled to provide the hydraulic oil preferentially to a traveling motor when a control unit selects a traveling mode; a steering unit which is supplied with hydraulic oil from the traveling priority valve and provided with a steering wheel which is rotated to discharge hydraulic oil for a direction change and a steering actuator which is operated by the hydraulic oil for the direction change so as to change a traveling direction of a rear wheel tire; characterized in that a controller stores a predetermined traveling speed, and outputs a control command in proportion to a magnitude of the current traveling speed when a current traveling speed reaches or becomes higher than the predetermined traveling speed; and a control valve is installed in a hydraulic line through which hydraulic oil is provided from the traveling priority valve to the steering unit, and the control valve is controlled such that the valve is maximally opened when no control command is inputted and an opening degree of the valve is controlled to be opened in proportion to a magnitude of the control command, and the control valve is controlled such that when the control command is outputted, an opening degree of the valve is decreased and a flow rate of hydraulic oil is decreased. a transmission which outputs power of which the speed is changed to a first speed or a second speed; a pump which is operated by the power and discharges pressurized hydraulic oil; a traveling priority valve which is controlled to provide the hydraulic oil preferentially to a traveling motor when a control unit selects a traveling mode; a steering unit which is supplied with hydraulic oil from the traveling priority valve and provided with a steering wheel which is rotated to discharge hydraulic oil for a direction change and a steering actuator which is operated by the hydraulic oil for the direction change so as to change a traveling direction of a rear wheel tire; characterized in that a controller stores a predetermined traveling speed, and outputs a control command in proportion to a magnitude of the current traveling speed when a current traveling speed reaches or becomes higher than the predetermined traveling speed; and a control valve is installed in a hydraulic line through which hydraulic oil is provided from the traveling priority valve to the steering unit, and the control valve is controlled such that the valve is maximally opened when no control command is inputted and an opening degree of the valve is controlled to be opened in proportion to a magnitude of the control command, and the control valve is controlled such that when the control command is outputted, an opening degree of the valve is decreased and a flow rate of hydraulic oil is decreased.
A fuel injection valve characterized by comprising: a needle valve (16; 26) including a seat portion (16a; 26a) on a tip side of the needle valve (16; 26); a nozzle body (2; 22) including a seat surface (2c; 22c) on which the seat portion (16a: 26a) is placed, the nozzle body (2; 22) including a swirl stabilization chamber (3; 23) on a downstream side of the seat surface (2c; 22c), the nozzle body (2; 22) including an injection hole (4; 24) that has an inlet in the swirl stabilization chamber (3; 23); a swirl flow generating portion configured to add a swirling component to a fuel flow introduced into the swirl stabilization chamber (3; 23); and a fuel collision portion (17; 27) provided in a tip portion of the needle valve (16; 26), the fuel collision portion (17; 27) being configured such that, in a state where the needle valve (16; 26) is opened, the fuel collision portion (17; 27) intersects with a virtual surface extended toward the injection hole from the seat surface (2c; 22c) included in the nozzle body (2; 22), characterized in that the swirl flow generating portion has swirl grooves and the fuel collision portion (17; 27) includes a spiral groove on its external wall, a swirl direction of the spiral groove relative to an axial center of the needle valve (16; 26) being the same direction as a swirl direction of the swirl grooves of the swirl flow generating portion relative to the axial center of the needle valve (16; 26). a needle valve (16; 26) including a seat portion (16a; 26a) on a tip side of the needle valve (16; 26); a nozzle body (2; 22) including a seat surface (2c; 22c) on which the seat portion (16a: 26a) is placed, the nozzle body (2; 22) including a swirl stabilization chamber (3; 23) on a downstream side of the seat surface (2c; 22c), the nozzle body (2; 22) including an injection hole (4; 24) that has an inlet in the swirl stabilization chamber (3; 23); a swirl flow generating portion configured to add a swirling component to a fuel flow introduced into the swirl stabilization chamber (3; 23); and a fuel collision portion (17; 27) provided in a tip portion of the needle valve (16; 26), the fuel collision portion (17; 27) being configured such that, in a state where the needle valve (16; 26) is opened, the fuel collision portion (17; 27) intersects with a virtual surface extended toward the injection hole from the seat surface (2c; 22c) included in the nozzle body (2; 22), characterized in that the swirl flow generating portion has swirl grooves and the fuel collision portion (17; 27) includes a spiral groove on its external wall, a swirl direction of the spiral groove relative to an axial center of the needle valve (16; 26) being the same direction as a swirl direction of the swirl grooves of the swirl flow generating portion relative to the axial center of the needle valve (16; 26).
An operating method of a femto base station, BS, to support a mobile station, MS, for detecting the femto BS of a plurality of femto BSs in a wireless communication system comprising a macro BS and the plurality of femto BS, the method comprising: receiving, from the macro BS, a request for monitoring an uplink, UL, signal of the MS permissible by the femto BS to access and information for indicating a transmission power of the MS; monitoring the UL signal of the MS permissible by the femto BS to access; determining whether the monitoring is succeeded or not based on the transmission power and signal strength of the UL signal; and transmitting, to the macro BS, a UL monitor report message for indicating whether the monitoring is succeeded or not; wherein the receiving of the request and the information for indicating the transmission power of the MS comprises: receiving a UL monitoring configuration information message comprising information relating to a UL monitoring interval of the MS, from the macro BS, allowing the femto BS to monitor a UL monitoring header of every MS permissible to access in a UL monitoring interval using the UL monitoring configuration information; and wherein the monitoring of the UL signal of the MS comprises monitoring the UL monitoring header transmitted from the MS during the UL monitoring interval of the MS. receiving, from the macro BS, a request for monitoring an uplink, UL, signal of the MS permissible by the femto BS to access and information for indicating a transmission power of the MS; monitoring the UL signal of the MS permissible by the femto BS to access; determining whether the monitoring is succeeded or not based on the transmission power and signal strength of the UL signal; and transmitting, to the macro BS, a UL monitor report message for indicating whether the monitoring is succeeded or not; wherein the receiving of the request and the information for indicating the transmission power of the MS comprises: receiving a UL monitoring configuration information message comprising information relating to a UL monitoring interval of the MS, from the macro BS, allowing the femto BS to monitor a UL monitoring header of every MS permissible to access in a UL monitoring interval using the UL monitoring configuration information; and wherein the monitoring of the UL signal of the MS comprises monitoring the UL monitoring header transmitted from the MS during the UL monitoring interval of the MS. receiving a UL monitoring configuration information message comprising information relating to a UL monitoring interval of the MS, from the macro BS, allowing the femto BS to monitor a UL monitoring header of every MS permissible to access in a UL monitoring interval using the UL monitoring configuration information; and wherein the monitoring of the UL signal of the MS comprises monitoring the UL monitoring header transmitted from the MS during the UL monitoring interval of the MS.