mhurhangee/ep-ind-claims huggingface dataset:
A lawn mower comprising: a handle assembly for guiding operation of the lawn mower; an operator bail which is pivotably connected to the handle assembly; and a bail stop which when arranged in a locked position prevents the operator bail to be moved towards the handle assembly, wherein when the bail stop is arranged in an un-locked position, the operator bail is allowed to be moved towards the handle assembly, wherein rotation of at least a blade of the lawn mower is started once the operator bail is moved in proximity to the handle assembly, wherein the bail stop is moved back to its locked position automatically by a spring-driven mechanism, characterized in that the locked position of the bail stop is achieved as soon as an operator releases the operator bail. a handle assembly for guiding operation of the lawn mower; an operator bail which is pivotably connected to the handle assembly; and a bail stop which when arranged in a locked position prevents the operator bail to be moved towards the handle assembly, wherein when the bail stop is arranged in an un-locked position, the operator bail is allowed to be moved towards the handle assembly, wherein rotation of at least a blade of the lawn mower is started once the operator bail is moved in proximity to the handle assembly, wherein the bail stop is moved back to its locked position automatically by a spring-driven mechanism, characterized in that the locked position of the bail stop is achieved as soon as an operator releases the operator bail.
Disinfection device for disinfecting surfaces, comprising an ozone generator for generating an ozone-containing air stream (O 3), an aerosol generator for generating an aerosol stream containing aqueous particles, and a disinfection chamber having an inlet opening for introducing an object with the surface to be disinfected into the disinfection chamber, wherein the outlet of the aerosol generator is coupled to the outlet of the ozone generator, and the ozone-containing air stream (O 3) generated by the ozone generator is mixed with the aerosol stream of the aerosol generator and fed into the disinfection chamber, wherein a mixing chamber is provided and wherein the aerosol generator and the ozone generator are connected to the mixing chamber for introducing the aerosol stream and the ozone-containing air stream (O 3) are connected to the mixing chamber, and the disinfection chamber has injection openings which are connected to the mixing chamber in order to introduce the aerosol stream mixed with the ozone-containing air stream (O 3) as a disinfection medium into the disinfection chamber for disinfecting the surface of an object introduced into the disinfection chamber, characterized in that the mixing chamber is a paraboloid.
A method of manufacturing a non-pneumatic wheel having an annular reinforcement structure (1, 15) that includes an inner reinforcement band, an outer reinforcement band, and a core positioned between the inner and outer reinforcement bands, the method comprising the steps of: providing the inner and outer reinforcement bands (2, 3) in a first mold (8, 11) with the inner and outer reinforcement bands positioned in concentric, spaced relationship so as to form an annular space between the inner and outer reinforcement bands; inserting material for the core into the first mold (8, 11) into the space between the inner and outer reinforcement bands (2, 3) so as to provide a casting that includes a core having a density of 0.75 g/cm 3 or greater that is located between the inner and outer reinforcement bands; placing the casting from said step of inserting into a second mold, the second mold providing at least one cavity for the molding of one or more features of the non-pneumatic wheel; and, introducing a matrix material in the at least one cavity of the second mold so as to form one or more features of the non-pneumatic wheel. providing the inner and outer reinforcement bands (2, 3) in a first mold (8, 11) with the inner and outer reinforcement bands positioned in concentric, spaced relationship so as to form an annular space between the inner and outer reinforcement bands; inserting material for the core into the first mold (8, 11) into the space between the inner and outer reinforcement bands (2, 3) so as to provide a casting that includes a core having a density of 0.75 g/cm 3 or greater that is located between the inner and outer reinforcement bands; placing the casting from said step of inserting into a second mold, the second mold providing at least one cavity for the molding of one or more features of the non-pneumatic wheel; and, introducing a matrix material in the at least one cavity of the second mold so as to form one or more features of the non-pneumatic wheel.
A high-frequency signal reception circuit (100, 500) that detects an input signal, the input signal being a signal obtained by modulating a carrier wave with a pulse signal, the high-frequency signal reception circuit (100, 500) comprising: an input terminal and an input reference terminal for receiving the input signal; an output terminal and an output reference terminal for outputting an output signal after detection; a first detector circuit (106, 506) that detects the input signal input between the input terminal and the input reference terminal, and outputs an output signal to the output terminal and the output reference terminal, the first detector circuit (106, 506) including a positive coupling capacitor that has a first terminal connected to the input terminal, and a positive inductor that has a first terminal connected to the second terminal of the positive coupling capacitor; a normally-on type transistor having a first terminal connected to the output terminal, a second terminal connected to the output reference terminal, and a control terminal; and a second detector circuit that detects the input signal input between the input terminal and the input reference terminal, and outputs a pulse signal of negative voltage to the control terminal of the transistor using the output reference terminal as a reference, the second detector circuit including a negative coupling capacitor that has a first terminal connected to the input terminal, and a negative inductor that has a first terminal connected to the second terminal of the negative coupling capacitor. an input terminal and an input reference terminal for receiving the input signal; an output terminal and an output reference terminal for outputting an output signal after detection; a first detector circuit (106, 506) that detects the input signal input between the input terminal and the input reference terminal, and outputs an output signal to the output terminal and the output reference terminal, the first detector circuit (106, 506) including a positive coupling capacitor that has a first terminal connected to the input terminal, and a positive inductor that has a first terminal connected to the second terminal of the positive coupling capacitor; a normally-on type transistor having a first terminal connected to the output terminal, a second terminal connected to the output reference terminal, and a control terminal; and a second detector circuit that detects the input signal input between the input terminal and the input reference terminal, and outputs a pulse signal of negative voltage to the control terminal of the transistor using the output reference terminal as a reference, the second detector circuit including a negative coupling capacitor that has a first terminal connected to the input terminal, and a negative inductor that has a first terminal connected to the second terminal of the negative coupling capacitor.
Method for functionally safe connection identification when interchanging data between two communication subscribers, A, B, in a communication system, wherein a first communication subscriber, A, operates as a data provider with a first address identifier, ID_A, and a second communication subscriber, B, operates as a data requester with a second address identifier, ID_B, characterized in that the second communication subscriber, B, in the case of a request for safety-oriented data, F_Data, from the first communication subscriber, A, transmits a sequence number, Req Nr, of the data request and its second address identifier, ID_B,to the first communication subscriber, A, in a request message and the first communication subscriber, A, then responds with a response message comprising - the safety-oriented data, F_Data, - the first address identifier, ID_A, - the sequence number, Req Nr, and - the second address identifier, ID_B, and, after receiving the response message, a check is carried out in the second communication subscriber, B, in order to determine whether this message contains the second address identifier, ID_B, of the requesting second communication subscriber, B, whether this message contains the sequence number, Req Nr, of the request message from the second communication subscriber, B, and whether this message comprises the first address identifier, ID_A, of the first communication subscriber, A, to which a request has been sent and, if all checking steps are positive, the safety-oriented data, F_Data, are accepted and are otherwise rejected. - the safety-oriented data, F_Data, - the first address identifier, ID_A, - the sequence number, Req Nr, and - the second address identifier, ID_B,
A radio communication transmitter apparatus operable to transmit multiple radio frequency bands in a telecommunication system, the radio communication transmitter apparatus comprising: a plurality of digital transmitter chains (21 1, 21 2...21 N), wherein each digital transmitter chain (21 1, 21 2...21 N) is coupled to receive a digital representation of a base band signal (27 1, 27 2...27 N), and wherein each digital transmitter chain (21 1, 21 2...21 N) comprises a digital transmitter (25 1, 25 2...25 N) that is configured to convert a respective digital representation of a base band signal (27 1, 27 2...27 N) directly into a digital representation of a radio frequency signal (23 1, 23 2...23 N); a digital combining unit coupled to receive the output of each digital transmitter chain (21 1, 21 2...21 N), and adapted to combine the digital representation of a radio frequency signal (23 1, 23 2...23 N) received from each digital transmitter chain (21 1, 21 2...21 N) into a digital representation of a radio frequency signal comprising multiple radio frequency bands; and a digital to analogue converter coupled to receive the digital representation of a radio frequency signal comprising multiple radio frequency bands, and adapted to convert the digital representation of a radio frequency signal comprising multiple radio frequency bands into an analogue radio frequency signal comprising multiple radio frequency bands. a plurality of digital transmitter chains (21 1, 21 2...21 N), wherein each digital transmitter chain (21 1, 21 2...21 N) is coupled to receive a digital representation of a base band signal (27 1, 27 2...27 N), and wherein each digital transmitter chain (21 1, 21 2...21 N) comprises a digital transmitter (25 1, 25 2...25 N) that is configured to convert a respective digital representation of a base band signal (27 1, 27 2...27 N) directly into a digital representation of a radio frequency signal (23 1, 23 2...23 N); a digital combining unit coupled to receive the output of each digital transmitter chain (21 1, 21 2...21 N), and adapted to combine the digital representation of a radio frequency signal (23 1, 23 2...23 N) received from each digital transmitter chain (21 1, 21 2...21 N) into a digital representation of a radio frequency signal comprising multiple radio frequency bands; and a digital to analogue converter coupled to receive the digital representation of a radio frequency signal comprising multiple radio frequency bands, and adapted to convert the digital representation of a radio frequency signal comprising multiple radio frequency bands into an analogue radio frequency signal comprising multiple radio frequency bands.
A method of producing substantially cylindrical articles of the tobacco processing industry, each of which articles comprises a respective first portion having a first material of the tobacco processing industry; at least one respective second portion having a second material of the tobacco processing industry; at least one respective third portion having a loose third material different from the first and second materials; and a respective cover comprising at least one sheet wrapped (in particular, substantially in the form of a tube) around the first, second, and third portions (3, 4, 5); the method being characterized by comprising a wrapping step, during which the sheet is wrapped around the first portion to form a substantially tubular first intermediate element with an open end; a first insertion step, during which the third material is inserted through the open end into the first intermediate element to form a second intermediate element; and a second insertion step, during which the second material is inserted through the open end into the second intermediate element, so that the third material is located between the first and second portions (3, 4) and so as to form the substantially cylindrical article; the first and second insertion steps being performed with said open end facing upwards; during the wrapping step, a strip being wrapped around a plurality of segments comprising the first material in a way such that a respective gap is left between each two successive segments and so as to form a rod comprising a plurality of (in particular, at least two) successive connected first intermediate elements; the method comprising a first cutting step, during which the rod is cut crosswise at (in particular, substantially halfway along) said segments.
Human uteroglobin or recombinant human uteroglobin for use in a method of treatment for reducing the titer of influenza virus in the lung tissue of a patient.
Method for inspecting a poultry carcass and/or a viscera package taken out from the poultry carcass, wherein said poultry carcass and/or viscera package moves in a processing line and wherein the inspection is carried out by an inspector selecting a particular poultry carcass and/or viscera package as to be rejected, wherein the selection of the particular poultry carcass and/or viscera package to be rejected is executed by said inspector without touching said poultry carcass and/or viscera package, characterized in that the selection of the particular poultry carcass and/or viscera package is carried out by said inspector actuating a noncontact sensor (8, 15) that is arranged to provide signals indicative of a position and/or an orientation of a bodily part of the inspector and/or of a pointer held by the inspector, and that the inspector moves the said bodily part and/or said pointer to a position which identifies said particular poultry carcass and/or viscera package that is to be rejected.
An automated control system comprising: a concentric ring electrode,,, (g); and a computer arranged to: a. measure electrical activity in the brain using non-invasive transcranial electroencephalography output obtained by the concentric ring electrode,,, (g); b. analyze the electrical activity; c. determine when the electrical activity is not within a normal range; and d. apply non-invasive transcranial focal stimulation using the concentric ring electrode,,, (g) to modify the electrical activity; characterized in that applying non-invasive transcranial focal stimulation modifies levels of one or more neurotransmitters in the brain, wherein one of the neurotransmitters is gamma-aminobutyric acid (GABA) and one of the neurotransmitters is glutamate, and applying non-invasive transcranial focal stimulation increases a level of GABA and decreases a level of glutamate. a concentric ring electrode,,, (g); and a computer arranged to: a. measure electrical activity in the brain using non-invasive transcranial electroencephalography output obtained by the concentric ring electrode,,, (g); b. analyze the electrical activity; c. determine when the electrical activity is not within a normal range; and d. apply non-invasive transcranial focal stimulation using the concentric ring electrode,,, (g) to modify the electrical activity; characterized in that applying non-invasive transcranial focal stimulation modifies levels of one or more neurotransmitters in the brain, wherein one of the neurotransmitters is gamma-aminobutyric acid (GABA) and one of the neurotransmitters is glutamate, and applying non-invasive transcranial focal stimulation increases a level of GABA and decreases a level of glutamate. a. measure electrical activity in the brain using non-invasive transcranial electroencephalography output obtained by the concentric ring electrode,,, (g); b. analyze the electrical activity; c. determine when the electrical activity is not within a normal range; and d. apply non-invasive transcranial focal stimulation using the concentric ring electrode,,, (g) to modify the electrical activity;
An evolved node B, eNB, comprising: processing circuitry to generate a control signal; and transceiver circuitry, coupled with the processing circuitry, to send an radio resource control, RRC, signal based at least in part on the control signal to a User Equipment, UE,, the eNB processing circuitry is adapted to: configure a set of allowed k values to select a subset of a predefined set of device-to-device, D2D, time resource pattern bitmaps, wherein: individual D2D time resource pattern bitmaps of the predefined set of D2D time resource pattern bitmaps are to indicate subframes of a communication frame that allow D2D communications; a one in a bitmap of the predefined set of D2D time resource pattern bitmaps corresponds to a subframe allowed for transmission by a transmitting UE; a zero in the bitmap correspondings to a subframe that cannot be used for transmission by the transmitting UE; and k indicates a number of subframes allowed for transmission; and the control signal has information corresponding to the set of allowed k values. processing circuitry to generate a control signal; and transceiver circuitry, coupled with the processing circuitry, to send an radio resource control, RRC, signal based at least in part on the control signal to a User Equipment, UE,, the eNB processing circuitry is adapted to: configure a set of allowed k values to select a subset of a predefined set of device-to-device, D2D, time resource pattern bitmaps, wherein: individual D2D time resource pattern bitmaps of the predefined set of D2D time resource pattern bitmaps are to indicate subframes of a communication frame that allow D2D communications; a one in a bitmap of the predefined set of D2D time resource pattern bitmaps corresponds to a subframe allowed for transmission by a transmitting UE; a zero in the bitmap correspondings to a subframe that cannot be used for transmission by the transmitting UE; and k indicates a number of subframes allowed for transmission; and the control signal has information corresponding to the set of allowed k values. configure a set of allowed k values to select a subset of a predefined set of device-to-device, D2D, time resource pattern bitmaps, wherein: individual D2D time resource pattern bitmaps of the predefined set of D2D time resource pattern bitmaps are to indicate subframes of a communication frame that allow D2D communications; a one in a bitmap of the predefined set of D2D time resource pattern bitmaps corresponds to a subframe allowed for transmission by a transmitting UE; a zero in the bitmap correspondings to a subframe that cannot be used for transmission by the transmitting UE; and k indicates a number of subframes allowed for transmission; and the control signal has information corresponding to the set of allowed k values.
A display apparatus comprising: a display module; a back cover disposed at a rear surface of the display module; a compartment provided inside the back cover; a sound generating unit inserted into the compartment; and wherein an upper surface of the sound generating unit is attached to the rear surface of the display module; characterized in that the back cover includes: an upper substrate facing to the rear surface of the display module; a lower substrate spaced apart from the upper substrate with a predetermined distance, wherein the upper substrate is facing the lower substrate; and a plurality of partition walls disposed between the upper substrate and the lower substrate, and wherein the compartment is defined between the two substrates (330, 310) and at least one partition wall. a display module; a back cover disposed at a rear surface of the display module; a compartment provided inside the back cover; a sound generating unit inserted into the compartment; and wherein an upper surface of the sound generating unit is attached to the rear surface of the display module; an upper substrate facing to the rear surface of the display module; a lower substrate spaced apart from the upper substrate with a predetermined distance, wherein the upper substrate is facing the lower substrate; and a plurality of partition walls disposed between the upper substrate and the lower substrate, and wherein the compartment is defined between the two substrates (330, 310) and at least one partition wall.
An additive manufacturing method for depositing a metal paste to produce a metal part, the method comprising: depositing a metal paste to form a wet film on a metal or ceramic substrate, wherein the metal paste comprises: (i) metal scaffold particles with D50 particle size, measured by volume of particles using static light scattering particle size analyzer, between 1μm and 5μm, the metal scaffold particles having a concentration of between 50-70 wt% of the metal paste; (ii) metal infiltrant particles with D50 particle size, measured by volume of particles using static light scattering particle size analyzer, of less than 1 5 of the D50 particle size of the metal scaffold particles, such that the metal infiltrant particles primarily position in the interstitial spaces formed between the metal scaffold particles, the metal infiltrant particles being in a concentration of 10-30 wt% of the metal paste; drying the wet film until a solvent is essentially removed from the wet layer by energy input, and some residual components of the wet film optionally decompose, thereby forming a dried film; performing a laser scribing in which material is selectively removed from the dried film by light excitation with laser power between 1-10W to define a layer shape; sintering the dried film, wherein energy is applied to the film such that the layer is heated to a temperature of between 500-800°C and metal particles fuse together and with the underlying layer; and repeating to to produce the metal part. depositing a metal paste to form a wet film on a metal or ceramic substrate, wherein the metal paste comprises: (i) metal scaffold particles with D50 particle size, measured by volume of particles using static light scattering particle size analyzer, between 1μm and 5μm, the metal scaffold particles having a concentration of between 50-70 wt% of the metal paste; (ii) metal infiltrant particles with D50 particle size, measured by volume of particles using static light scattering particle size analyzer, of less than 1 5 of the D50 particle size of the metal scaffold particles, such that the metal infiltrant particles primarily position in the interstitial spaces formed between the metal scaffold particles, the metal infiltrant particles being in a concentration of 10-30 wt% of the metal paste; drying the wet film until a solvent is essentially removed from the wet layer by energy input, and some residual components of the wet film optionally decompose, thereby forming a dried film; performing a laser scribing in which material is selectively removed from the dried film by light excitation with laser power between 1-10W to define a layer shape; sintering the dried film, wherein energy is applied to the film such that the layer is heated to a temperature of between 500-800°C and metal particles fuse together and with the underlying layer; and repeating to to produce the metal part.