mhurhangee/ep-ind-claims huggingface dataset:
A nebulizer apparatus, comprising: a main body having: an atomizer operable to atomize a fluid stored in the main body in response to a control input; a sensor to read an air pressure of a sensor opening disposed on a casing of the main body; a controller configured to receive the air pressure and, based at least in part on an air pressure change, adjust the control input of the atomizer; and characterized by a multi-piece nozzle assembly mechanically attachable to the main body and having a main conduit portion configured to guide the atomized fluid to a user piece, and an air pressure duct portion configured to connect the sensor opening on the casing of the main body to the user piece, wherein the air pressure duct includes a duct and a separate ring. a main body having: an atomizer operable to atomize a fluid stored in the main body in response to a control input; a sensor to read an air pressure of a sensor opening disposed on a casing of the main body; a controller configured to receive the air pressure and, based at least in part on an air pressure change, adjust the control input of the atomizer; and an atomizer operable to atomize a fluid stored in the main body in response to a control input; a sensor to read an air pressure of a sensor opening disposed on a casing of the main body; a controller configured to receive the air pressure and, based at least in part on an air pressure change, adjust the control input of the atomizer; and characterized by a multi-piece nozzle assembly mechanically attachable to the main body and having a main conduit portion configured to guide the atomized fluid to a user piece, and an air pressure duct portion configured to connect the sensor opening on the casing of the main body to the user piece, wherein the air pressure duct includes a duct and a separate ring.
A phase conjugate master oscillator power amplifier comprising: an oscillator including a first Bragg grating and an amplifier adapted to output a beam at a first wavelength λ 1; a power amplifier; an outcoupler in alignment with said oscillator and said power amplifier, wherein the outcoupler is a second Bragg grating (212; 213) positioned oblique to the oscillator and power amplifier such that the outcoupler provides near 100% reflectivity at λ 1 and substantially full transmission at a second wavelength λ 2, and couples the beam output from the oscillator toward the power amplifier; and a loop phase conjugate mirror adapted to reflect a beam output by said power amplifier with a beam having the second wavelength λ 2, wherein the loop phase conjugate mirror includes: an amplifier having a gain spectral bandwidth, and a third Bragg grating having a near 100% reflectivity at λ 2 and a lower reflectivity at λ 1, where the difference in wavelengths λ 1 -λ 2 is less than the amplifier gain spectral bandwidth. an oscillator including a first Bragg grating and an amplifier adapted to output a beam at a first wavelength λ 1; a power amplifier; an outcoupler in alignment with said oscillator and said power amplifier, wherein the outcoupler is a second Bragg grating (212; 213) positioned oblique to the oscillator and power amplifier such that the outcoupler provides near 100% reflectivity at λ 1 and substantially full transmission at a second wavelength λ 2, and couples the beam output from the oscillator toward the power amplifier; and a loop phase conjugate mirror adapted to reflect a beam output by said power amplifier with a beam having the second wavelength λ 2, wherein the loop phase conjugate mirror includes: an amplifier having a gain spectral bandwidth, and a third Bragg grating having a near 100% reflectivity at λ 2 and a lower reflectivity at λ 1, where the difference in wavelengths λ 1 -λ 2 is less than the amplifier gain spectral bandwidth.
Method (METH) for measuring a distance R separating a vehicle and an identifier for accessing and starting the vehicle, the vehicle and the identifier being synchronized, the method (METH) comprising N sequences Sq p, p∈[1;N], N being a natural number at least greater than 3, each sequence Sq p comprising the following steps: - transmission (Em_S vp), from a transmitter (TXv) of the vehicle to a receiver (Rxi) of the identifier, of a first signal (S vp) of frequency f p - measurement (Mes_φ vip), by a computer (Xi) of the identifier, of a phase φ vip, modulo 2n, of the received first signal (S vp), in relation to a second signal (S ip) of phase φ ip (t) = φ 0ip + 2πf p t - transmission (Em_S ip), from a transmitter (TXi) of the identifier to a receiver (RXv) of the vehicle, of the second signal (S ip), said second signal (S ip) being generated by a phase-locked loop (PLLi) of the identifier I, such that its phase has a value φ 0ip and its frequency has a value f p; - transmission, to the receiver (RXv) of the vehicle V, of the phase φ vip that it measured beforehand; - calculation (Mes_ φ ivp), by a computer (Xv) of the vehicle, of a phase φ ivp, modulo 2n, of the received second signal (S ip), in relation to the first signal (S vp) - calculation (Cal_φ p) of the average φ p of the phase φ vip and of the phase φ ivp the method (METH) furthermore including: - for each value of p between 1 and N-1, calculation (Cal_P p) of a gradient P p using the formula P p =(φ p+1 -φ p)/(f p+1 -f p) - filtering (Fil_P p) of the N-1 values of calculated gradients P p so as to determine an optimum gradient P - calculation (Cal_R) of the distance R on the basis of the optimum gradient P. - transmission (Em_S vp), from a transmitter (TXv) of the vehicle to a receiver (Rxi) of the identifier, of a first signal (S vp) of frequency f p - measurement (Mes_φ vip), by a computer (Xi) of the identifier, of a phase φ vip, modulo 2n, of the received first signal (S vp), in relation to a second signal (S ip) of phase φ ip (t) = φ 0ip + 2πf p t - transmission (Em_S ip), from a transmitter (TXi) of the identifier to a receiver (RXv) of the vehicle, of the second signal (S ip), said second signal (S ip) being generated by a phase-locked loop (PLLi) of the identifier I, such that its phase has a value φ 0ip and its frequency has a value f p; - transmission, to the receiver (RXv) of the vehicle V, of the phase φ vip that it measured beforehand; - calculation (Mes_ φ ivp), by a computer (Xv) of the vehicle, of a phase φ ivp, modulo 2n, of the received second signal (S ip), in relation to the first signal (S vp) - calculation (Cal_φ p) of the average φ p of the phase φ vip and of the phase φ ivp - for each value of p between 1 and N-1, calculation (Cal_P p) of a gradient P p using the formula P p =(φ p+1 -φ p)/(f p+1 -f p) - filtering (Fil_P p) of the N-1 values of calculated gradients P p so as to determine an optimum gradient P - calculation (Cal_R) of the distance R on the basis of the optimum gradient P.
A nanowire molecular sensor comprising a plurality of nanowires arranged mutually spaced apart to project substantially parallel to each other from a front side of a substrate, wherein each nanowire has two ends (32,33) and a sidewall, which sidewall is functionalized in order to attach a molecule, wherein each nanowire is a waveguide configured to receive light from light emissive point sources at the sidewall by means of a near-field coupling mechanism and to emit light from one of said ends, wherein the amount of light emitted is dependent on the amount of specific molecules attached to the sidewall, wherein the substrate has a predefined surface region configured for background signal detection, from which region no light is emitted from any nanowire waveguide end, and wherein the nanowires are provided in segments throughout the substrate surface, wherein the sidewalls of the nanowires of different segments are differently functionalized so as to attach different specific molecules. wherein each nanowire has two ends (32,33) and a sidewall, which sidewall is functionalized in order to attach a molecule, wherein each nanowire is a waveguide configured to receive light from light emissive point sources at the sidewall by means of a near-field coupling mechanism and to emit light from one of said ends, wherein the amount of light emitted is dependent on the amount of specific molecules attached to the sidewall, wherein the substrate has a predefined surface region configured for background signal detection, from which region no light is emitted from any nanowire waveguide end, and wherein the nanowires are provided in segments throughout the substrate surface, wherein the sidewalls of the nanowires of different segments are differently functionalized so as to attach different specific molecules.
A method of forming a component (14; 36; 60, 62, 64; 120) of an article (10; 100), the method comprising: decorating a portion of a plurality of foam particles, wherein the decorating comprises embossing or debossing the portion of the plurality of foam particles; arranging the plurality of foam particles by depositing a layer comprising the plurality of foam particles, wherein the arranged plurality of foam particles comprises a first thermoplastic elastomeric material, and wherein the arranged plurality of foam particles has a number average particle size of 0.04 millimeters to 10 millimeters in a longest dimension; and affixing arranged foam particles within a target area which is a portion (121a, 121b, 121c, 122, 123; 124a, 124b, 124c) of the layer of the plurality of foam particles; wherein the arranging and affixing of a plurality of foam particles are carried out for two or more iterations, and wherein the component is formed layer-wise from a plurality of layers of arranged and affixed foam particles. decorating a portion of a plurality of foam particles, wherein the decorating comprises embossing or debossing the portion of the plurality of foam particles; arranging the plurality of foam particles by depositing a layer comprising the plurality of foam particles, wherein the arranged plurality of foam particles comprises a first thermoplastic elastomeric material, and wherein the arranged plurality of foam particles has a number average particle size of 0.04 millimeters to 10 millimeters in a longest dimension; and affixing arranged foam particles within a target area which is a portion (121a, 121b, 121c, 122, 123; 124a, 124b, 124c) of the layer of the plurality of foam particles; wherein the arranging and affixing of a plurality of foam particles are carried out for two or more iterations, and wherein the component is formed layer-wise from a plurality of layers of arranged and affixed foam particles.
An electric expansion valve for a car air-conditioner, the electric drive valve comprising: a valve main body having a cooling medium inflow port, a cooling medium outflow port, and a valve seat with a valve port arranged between said cooling medium inflow port and said cooling medium outflow port and provided with a valve chest; a valve body for opening and closing said valve port; and a valve body drive source for moving said valve body and said valve port in an opening and closing direction, wherein said valve main body is provided with a through passage which has an inflow port for connecting a conduit pipe and an outflow port for connecting the conduit pipe, and a pressure sensor detecting pressure of a cooling medium flowing in said through passage is integrally provided in said valve main body, wherein said valve body drive source and said pressure sensor are mounted to a same side of an outer surface of said valve main body, characterised in that the valve main body further comprises a communication port that communicates with the valve chest and with the cooling medium inflow port, wherein the communication port has a straight bore with a diameter larger than a bore diameter of the valve port. a valve main body having a cooling medium inflow port, a cooling medium outflow port, and a valve seat with a valve port arranged between said cooling medium inflow port and said cooling medium outflow port and provided with a valve chest; a valve body for opening and closing said valve port; and a valve body drive source for moving said valve body and said valve port in an opening and closing direction, wherein said valve main body is provided with a through passage which has an inflow port for connecting a conduit pipe and an outflow port for connecting the conduit pipe, and a pressure sensor detecting pressure of a cooling medium flowing in said through passage is integrally provided in said valve main body, wherein said valve body drive source and said pressure sensor are mounted to a same side of an outer surface of said valve main body, characterised in that the valve main body further comprises a communication port that communicates with the valve chest and with the cooling medium inflow port, wherein the communication port has a straight bore with a diameter larger than a bore diameter of the valve port.
An interlocking for a door leaf, comprising a lock mechanism and an espagnolette bolt rod, which with a first portion at one end is in operative connection with the lock mechanism and with a second portion with one end engages into an opening of a door frame or the like, wherein the first portion of the espagnolette bolt rod with the second portion of the espagnolette bolt rod is connectable without tools, wherein the second portion of the espagnolette bolt rod consists of at least one espagnolette bolt and one bolt, wherein the espagnolette bolt is configured to be height adjustable and the espagnolette bolt is guided through a guiding sleeve, characterized in that the espagnolette bolts and are articulately connected to each other, wherein the articulate connection is configured as a cardanic connection.
Arrangement for separating substrates, which arrangement has: a support surface which is designed to receive a substrate card having a first surface and a second surface, which is situated opposite the first surface, in such a way that the substrate card, by way of its second surface, rests at least partially on the support surface; a first holding apparatus which is designed to hold a substrate card, which is arranged on the support surface, on the support surface during a first breaking process, wherein the first holding apparatus is further designed to exert a first holding force onto a first holding region of the substrate card during the first breaking process; a first breaking apparatus which is designed to exert a first breaking force onto a first breaking region of the substrate card during the first breaking process in order to partially separate the substrate card; a second holding apparatus which is designed to hold the substrate card, which was at least partially separated after the first breaking process, on the support surface during a second breaking process, wherein the second holding apparatus is further designed to exert a second holding force onto a second holding region of the substrate card during the second breaking process; and a second breaking apparatus which is designed to exert a second breaking force onto a second breaking region of the substrate card during the second breaking process in order to further separate the substrate card. a support surface which is designed to receive a substrate card having a first surface and a second surface, which is situated opposite the first surface, in such a way that the substrate card, by way of its second surface, rests at least partially on the support surface; a first holding apparatus which is designed to hold a substrate card, which is arranged on the support surface, on the support surface during a first breaking process, wherein the first holding apparatus is further designed to exert a first holding force onto a first holding region of the substrate card during the first breaking process; a first breaking apparatus which is designed to exert a first breaking force onto a first breaking region of the substrate card during the first breaking process in order to partially separate the substrate card; a second holding apparatus which is designed to hold the substrate card, which was at least partially separated after the first breaking process, on the support surface during a second breaking process, wherein the second holding apparatus is further designed to exert a second holding force onto a second holding region of the substrate card during the second breaking process; and a second breaking apparatus which is designed to exert a second breaking force onto a second breaking region of the substrate card during the second breaking process in order to further separate the substrate card.
An electric machine comprising: a stator defining an inner cavity; a rotor rotatable about an axis within the inner cavity, the rotor separated from the stator by an annular gap; a sleeve disposed about the rotor and within the annular gap, the sleeve defining a first sealed chamber including the rotor; a first cooling medium disposed within the first sealed chamber; and a second cooling medium disposed outside of the first sealed chamber and about the stator, wherein an interface between the stator and the sleeve comprises a press fit and any voids between the sleeve and stator are filled with the second cooling medium. a stator defining an inner cavity; a rotor rotatable about an axis within the inner cavity, the rotor separated from the stator by an annular gap; a sleeve disposed about the rotor and within the annular gap, the sleeve defining a first sealed chamber including the rotor; a first cooling medium disposed within the first sealed chamber; and a second cooling medium disposed outside of the first sealed chamber and about the stator, wherein an interface between the stator and the sleeve comprises a press fit and any voids between the sleeve and stator are filled with the second cooling medium.
A system, comprising: a master component having a communication node; and a plurality of slave components (14a-14N), each slave component having a bidirectional node (16a-16N), the slave components being configured to each store data in response to a trigger signal received at the bidirectional node from the communication node, wherein each of the slave components is further configured to communicate the stored data in a serial data signal (26a-26N) from the bidirectional node (16a-16N) to the communication node in response to the trigger signal received at the bidirectional node from the communication node, wherein the slave components (14a-14N) communicate the stored data in an order, and wherein each of the slave components monitors serial data signals from the other slave components to the communication node. a master component having a communication node; and a plurality of slave components (14a-14N), each slave component having a bidirectional node (16a-16N), the slave components being configured to each store data in response to a trigger signal received at the bidirectional node from the communication node, wherein each of the slave components is further configured to communicate the stored data in a serial data signal (26a-26N) from the bidirectional node (16a-16N) to the communication node in response to the trigger signal received at the bidirectional node from the communication node, wherein the slave components (14a-14N) communicate the stored data in an order, and wherein each of the slave components monitors serial data signals from the other slave components to the communication node.
An additive for feeds, foods, drinking water or pharmaceutical preparations, prepared from at least one cornelian cherry species, in particular Cornus mas, Cornus officinalis, Cornus chinensis or Cornus eydeana, characterized in that at least one component selected from cornelian cherry stone powder and/or cornelian cherry stone extract as well as, in addition, at least one further substance obtained from chemical synthesis and/or microbial fermentation, selected from calcium formate, benzoic acid, ascorbic acid, formic acid or vitamin B12, and optionally at least one component selected from carrier substrates, formulation excipients and/or biologically active components, are contained.
A method in a network node for multiplexing a physical channel, between the network node and devices (121, 122, 123) comprised in a mixed wireless network, wherein the mixed wireless network further comprises a cellular network comprising one or more cellular channels and a Device-to-Device, D2D, network comprising one or more D2D channels, the method comprising: time division multiplexing the physical channel between a first group of cellular channels (411, 412) and a first group of D2D channels (431, 432); frequency division multiplexing the physical channel between a second group of cellular channels and the first group of D2D channels (431, 432); and being characterized by: obtaining information about interference of the one or more D2D channels; and setting a frequency margin between the second group of cellular channels and the first group of D2D channels (431, 432) based on the obtained interference information. time division multiplexing the physical channel between a first group of cellular channels (411, 412) and a first group of D2D channels (431, 432); frequency division multiplexing the physical channel between a second group of cellular channels and the first group of D2D channels (431, 432); obtaining information about interference of the one or more D2D channels; and setting a frequency margin between the second group of cellular channels and the first group of D2D channels (431, 432) based on the obtained interference information.
A rock drilling unit of a rock drilling rig, comprising: a feed beam and a rock drilling machine supported movably on the feed beam for drilling holes; wherein the rock drilling unit further comprises an initiator feed system for feeding initiators inside the drilled holes in order to activate rock breaking material also fed inside the drilled holes; wherein the initiator feed system of the drilling unit is provided with at least one communicating device for providing wireless communication with the initiators; the communication device (Cd) is in data connection with at least one control unit mounted onboard the rock drilling rig and adapted for controlling operation of the rock drilling machine and the initiator feed system; and the communication device (Cd) is configured to determine identification of the initiator and provides identification data to link the initiator to at least one dedicated data element. a feed beam and a rock drilling machine supported movably on the feed beam for drilling holes; wherein the rock drilling unit further comprises an initiator feed system for feeding initiators inside the drilled holes in order to activate rock breaking material also fed inside the drilled holes; wherein the initiator feed system of the drilling unit is provided with at least one communicating device for providing wireless communication with the initiators; the communication device (Cd) is in data connection with at least one control unit mounted onboard the rock drilling rig and adapted for controlling operation of the rock drilling machine and the initiator feed system; and the communication device (Cd) is configured to determine identification of the initiator and provides identification data to link the initiator to at least one dedicated data element.