mhurhangee/ep-ind-claims huggingface dataset:
A water-dispersed aerogel, comprising: a mixture of water and an organic solvent, and particles having i) a BET specific surface area of 300 ∼ 1500 m 2 /g and ii) a porosity of 50% or more, wherein the mixture of water and organic solvent comprises the water and the organic solvent at a weight ratio of 2:1 ∼ 1:1, and the particles are contained in an amount of 1 ∼ 25 parts by weight based on 100 parts by weight of the mixture of water and organic solvent, wherein the particles are silica (SiO 2) have a particle size ranging from 2 nm to 50 μm and have a superhydrophobicity with a water contact angle of 125° or more, wherein the organic solvent is isopropyl alcohol. a mixture of water and an organic solvent, and particles having i) a BET specific surface area of 300 ∼ 1500 m 2 /g and ii) a porosity of 50% or more, wherein the mixture of water and organic solvent comprises the water and the organic solvent at a weight ratio of 2:1 ∼ 1:1, and the particles are contained in an amount of 1 ∼ 25 parts by weight based on 100 parts by weight of the mixture of water and organic solvent, wherein the particles are silica (SiO 2) have a particle size ranging from 2 nm to 50 μm and have a superhydrophobicity with a water contact angle of 125° or more, wherein the organic solvent is isopropyl alcohol.
A method performed by a client device in a communication system supporting mission critical push-to-talk, MCPTT, the method comprising: transmitting, to a server, a session initiation protocol, SIP, INVITE request including a session description protocol, SDP, offer, the SDP offer including a format specific parameter, fmtp, attribute for an implicit request and a synchronization source, SSRC, value as a media attribute of a session description protocol, SDP; and receiving, from the server, a SIP response including an SDP answer in response to transmission of the SIP INVITE request including the SDP offer, the SDP answer including the fmtp attribute for the implicit request and either the same SSRC value or a new SSRC value; wherein the SIP INVITE request, including the fmtp attribute of the implicit request, represents an implicit floor request; wherein the SDP answer includes either the same SSRC value in response to the SSRC value in the SDP offer not being in use or the new SSRC value in response to the SSRC value in the SDP offer being in use; and wherein the SDP answer includes either the same SSRC value or the new SSRC value as an fmtp attribute of an application m-line of the SDP. transmitting, to a server, a session initiation protocol, SIP, INVITE request including a session description protocol, SDP, offer, the SDP offer including a format specific parameter, fmtp, attribute for an implicit request and a synchronization source, SSRC, value as a media attribute of a session description protocol, SDP; and receiving, from the server, a SIP response including an SDP answer in response to transmission of the SIP INVITE request including the SDP offer, the SDP answer including the fmtp attribute for the implicit request and either the same SSRC value or a new SSRC value; wherein the SIP INVITE request, including the fmtp attribute of the implicit request, represents an implicit floor request; wherein the SDP answer includes either the same SSRC value in response to the SSRC value in the SDP offer not being in use or the new SSRC value in response to the SSRC value in the SDP offer being in use; and wherein the SDP answer includes either the same SSRC value or the new SSRC value as an fmtp attribute of an application m-line of the SDP. wherein the SIP INVITE request, including the fmtp attribute of the implicit request, represents an implicit floor request; wherein the SDP answer includes either the same SSRC value in response to the SSRC value in the SDP offer not being in use or the new SSRC value in response to the SSRC value in the SDP offer being in use; and wherein the SDP answer includes either the same SSRC value or the new SSRC value as an fmtp attribute of an application m-line of the SDP.
A method of resetting a pause control mechanism of an oral irrigator, the method comprising: providing the oral irrigator, the oral irrigator comprising a handle having a bi-stable pause control element; placing the oral irrigator to an on state to permit fluid flow through a fluid channel of the handle of the oral irrigator; operating a valve, via the bi-stable pause control element, to permit fluid flow through a valve of the handle of the oral irrigator thereby compressing a resilient device from a first position to a second position; locking, via a locking mechanism, the resilient device in the second position; releasing the locking mechanism by placing the handle of the oral irrigator in a stand or by turning the oral irrigator to an off state such that the resilient device (220, 232) expands from the second position to the first position thereby setting the pause control element to inhibit fluid flow through the valve. providing the oral irrigator, the oral irrigator comprising a handle having a bi-stable pause control element; placing the oral irrigator to an on state to permit fluid flow through a fluid channel of the handle of the oral irrigator; operating a valve, via the bi-stable pause control element, to permit fluid flow through a valve of the handle of the oral irrigator thereby compressing a resilient device from a first position to a second position; locking, via a locking mechanism, the resilient device in the second position; releasing the locking mechanism by placing the handle of the oral irrigator in a stand or by turning the oral irrigator to an off state such that the resilient device (220, 232) expands from the second position to the first position thereby setting the pause control element to inhibit fluid flow through the valve.
Device for machining panel-shaped workpieces, in particular those made of wood and/or of wood substitutes and/or of plastics and/or designed as honeycomb plates, having a controlled displaceably mounted machining tool, in particular a drilling or milling tool, wherein the device further comprises a suction device opposite the machining tool, wherein the suction device is displaceable in dependence on the movement of the machining tool, characterised in that the suction device is further designed so that it is entrained in the same direction (X, Y) with the movement of the machining tool.
Method for battery module balancing of a battery, which has at least one battery module string, wherein the at least one battery module string comprises a plurality of battery modules connected in series or in parallel, wherein each battery module comprises a single or a plurality of battery cells connected in parallel or in series and a coupling unit, which is designed to connect and disconnect the battery module, said method comprising the following steps: a) determining a battery module state (51, 62, 71, 82) of at least two battery modules; b) disconnecting individual battery modules with a low battery module state (51, 62, 71, 82), wherein the low battery module state (51, 62, 71, 82) is defined by a ratio (63, 83) of the battery module state (51, 62, 71, 82) determined in step a) with respect to an initial state (61, 81) of the battery modules, wherein a threshold value is provided and a battery module state (51, 62, 71, 82) below the threshold value applies as low battery module state, characterized in that the threshold value is reduced after a specific time and/or after a specific number of charging/discharging cycles, as a result of which the battery modules which are weaker at the beginning are reconnected if the battery module state (51, 62, 71, 82) is greater than the threshold value. a) determining a battery module state (51, 62, 71, 82) of at least two battery modules; b) disconnecting individual battery modules with a low battery module state (51, 62, 71, 82), wherein the low battery module state (51, 62, 71, 82) is defined by a ratio (63, 83) of the battery module state (51, 62, 71, 82) determined in step a) with respect to an initial state (61, 81) of the battery modules,
A method for producing a beam having a selected divergence in at least one axis using a pulsed, multi-stage laser, comprising the steps of: measuring a relationship for a first laser stage between divergence and laser pulse repetition rate over a range of pulse repetition rates; measuring a relationship for a second laser stage between divergence and laser pulse repetition rate over the range of pulse repetition rates, characterized in that said method further comprises the steps of: comparing said relationship for the first laser stage with the relationship for a second laser stage to determine a temperature delta and pulse repetition rate to produce a selected divergence, the temperature delta being a difference between an operating temperature setpoint of the first laser stage and an operating temperature setpoint of the second laser stage. measuring a relationship for a first laser stage between divergence and laser pulse repetition rate over a range of pulse repetition rates; measuring a relationship for a second laser stage between divergence and laser pulse repetition rate over the range of pulse repetition rates, characterized in that said method further comprises the steps of: comparing said relationship for the first laser stage with the relationship for a second laser stage to determine a temperature delta and pulse repetition rate to produce a selected divergence, the temperature delta being a difference between an operating temperature setpoint of the first laser stage and an operating temperature setpoint of the second laser stage. comparing said relationship for the first laser stage with the relationship for a second laser stage to determine a temperature delta and pulse repetition rate to produce a selected divergence, the temperature delta being a difference between an operating temperature setpoint of the first laser stage and an operating temperature setpoint of the second laser stage.
An image pickup apparatus, comprising: a rectangular parallelepiped image pickup chip made of a semiconducting material, in which a plurality of function portion patterns (11, 12) including a light-receiving portion are formed on a first main surface; an optical member in which alignment marks (31A, 31B) are formed at at least two places, and which is made of a transparent material that is bonded via an adhesive layer so as to cover the light-receiving portion; and an image pickup optical system arranged in the optical member, characterized in that the alignment marks (31A, 31B) are formed on a bonding surface of the optical member, each of the alignment marks (31A, 31B) is in a predetermined positional relationship with one of the function portion patterns (11, 12) and is formed at a position at which an image height of the image pickup optical system becomes maximum. a rectangular parallelepiped image pickup chip made of a semiconducting material, in which a plurality of function portion patterns (11, 12) including a light-receiving portion are formed on a first main surface; an optical member in which alignment marks (31A, 31B) are formed at at least two places, and which is made of a transparent material that is bonded via an adhesive layer so as to cover the light-receiving portion; and an image pickup optical system arranged in the optical member, characterized in that the alignment marks (31A, 31B) are formed on a bonding surface of the optical member, each of the alignment marks (31A, 31B) is in a predetermined positional relationship with one of the function portion patterns (11, 12) and is formed at a position at which an image height of the image pickup optical system becomes maximum.
An arc evaporation source, comprising: a target to be melted and evaporated from a front end surface of the target by arc discharge; and at least one magnet disposed at a position apart from a side surface of the target radially of the target, the side surface being continuous with a periphery of the front end surface of the target, characterized in that the magnet is disposed so as to form a magnetic field that satisfies conditions a) and b) below, on the side surface of the target, in a region of up to 10 mm from the front end surface of the target in an axial direction of the target, the axial direction being normal to the front end surface: a) an angle which magnetic lines of force of the magnetic field forms with the side surface of the target is 45 degrees or less, the magnetic lines of force of the magnetic field extending outward in the radial direction while approaching the front end surface of the target on the side surface of the target; and b) a component (Bx) of the strength of the magnetic lines of force along the axial direction of the target is 200 G or more. a target to be melted and evaporated from a front end surface of the target by arc discharge; and at least one magnet disposed at a position apart from a side surface of the target radially of the target, the side surface being continuous with a periphery of the front end surface of the target, characterized in that the magnet is disposed so as to form a magnetic field that satisfies conditions a) and b) below, on the side surface of the target, in a region of up to 10 mm from the front end surface of the target in an axial direction of the target, the axial direction being normal to the front end surface: a) an angle which magnetic lines of force of the magnetic field forms with the side surface of the target is 45 degrees or less, the magnetic lines of force of the magnetic field extending outward in the radial direction while approaching the front end surface of the target on the side surface of the target; and b) a component (Bx) of the strength of the magnetic lines of force along the axial direction of the target is 200 G or more. a) an angle which magnetic lines of force of the magnetic field forms with the side surface of the target is 45 degrees or less, the magnetic lines of force of the magnetic field extending outward in the radial direction while approaching the front end surface of the target on the side surface of the target; and b) a component (Bx) of the strength of the magnetic lines of force along the axial direction of the target is 200 G or more.
A method for controlling at least one electrical piece of equipment of an installation further comprising a counting device adapted to control the electrical piece of equipment through an operating setpoint (Cs), the counting device being further adapted to communicate with a concentrator of an electrical transformer station, the concentrator being adapted to communicate with an information system, wherein the concentrator is arranged to send, to the counting device, an operating signal (Sf) of at least one piece of electrical equipment, the method including the following steps: a. receiving, from the information system, data of a request from a user, of user control (Pu) of the piece of equipment, the user control request (Pu) indicating at least one type of control (Tp) and a period of application of said control (Pp), and processing the user control request (Pu) based on the type of the piece of equipment, the control type (Tp) and the period (Pp), to deliver to the concentrator a processed user control request (Putr) indicating a calculated control period (Ppc); b. transmitting, by the concentrator of a modified operating signal (Sfm) based on the processed control request (Putr); c. controlling, by the the counting device, the electrical piece of equipment through the operating setpoint (Cs) based on said modified operating signal (Sfm). wherein the concentrator is arranged to send, to the counting device, an operating signal (Sf) of at least one piece of electrical equipment, the method including the following steps: a. receiving, from the information system, data of a request from a user, of user control (Pu) of the piece of equipment, the user control request (Pu) indicating at least one type of control (Tp) and a period of application of said control (Pp), and processing the user control request (Pu) based on the type of the piece of equipment, the control type (Tp) and the period (Pp), to deliver to the concentrator a processed user control request (Putr) indicating a calculated control period (Ppc); b. transmitting, by the concentrator of a modified operating signal (Sfm) based on the processed control request (Putr); c. controlling, by the the counting device, the electrical piece of equipment through the operating setpoint (Cs) based on said modified operating signal (Sfm). a. receiving, from the information system, data of a request from a user, of user control (Pu) of the piece of equipment, the user control request (Pu) indicating at least one type of control (Tp) and a period of application of said control (Pp), and processing the user control request (Pu) based on the type of the piece of equipment, the control type (Tp) and the period (Pp), to deliver to the concentrator a processed user control request (Putr) indicating a calculated control period (Ppc); b. transmitting, by the concentrator of a modified operating signal (Sfm) based on the processed control request (Putr); c. controlling, by the the counting device, the electrical piece of equipment through the operating setpoint (Cs) based on said modified operating signal (Sfm).
Adhesive product comprising a carrier having, disposed on the front side of the carrier, a layer of pressure-sensitive adhesive, and, disposed on the back side of the carrier, a release layer, comprising silica gel particles and starch and also a binder and optionally further additives, characterized in that the silica gel particles have an average particle size, obtained as D(0.50) value determined by the method described in the description, of 3-10 μm.
An apparatus comprising: a power amplifier; means for obtaining an amplitude component of a transmission signal including transmission symbols distributed to a number of transmission resource blocks allocated to a radio transmitter for transmission; power supply means for generating a power supply signal for the power amplifier, low-pass filtering means, integrated into the power supply means, for low-pass filtering the amplitude component before or during said generation of the power supply signal under the control of the amplitude component; and means for adjusting a bandwidth of a pass band of the low-pass filtering means according to the number of transmission resource blocks. a power amplifier; means for obtaining an amplitude component of a transmission signal including transmission symbols distributed to a number of transmission resource blocks allocated to a radio transmitter for transmission; power supply means for generating a power supply signal for the power amplifier, low-pass filtering means, integrated into the power supply means, for low-pass filtering the amplitude component before or during said generation of the power supply signal under the control of the amplitude component; and means for adjusting a bandwidth of a pass band of the low-pass filtering means according to the number of transmission resource blocks.
Terminal block having a housing, having at least two connecting elements (3, 4), having at least one current bar (5, 6) via which two connecting elements (3, 3; 4, 4) of one level are each connected to one another, having a protective element and having an electrically conductive spring element, wherein the first terminal of the protective element is electrically conductively connected to the at least one terminal element, wherein the first end section of the conductive spring element is electrically conductively connected to the at least one current bar, wherein the second end section of the conductive spring element is electrically conductively connected to the second terminal of the protective element via a thermally separating connection in the normal state of the protective element, and wherein the thermally separating connection between the second end section of the conductive spring element and the second terminal of the protective element separates when a predetermined limit temperature of the protective element is exceeded, and the second end section of the conductive spring element moves, as a result of the spring force of the spring element, into a position in which the second end section is spaced apart from the second terminal of the protective element, characterized in that at least one recess is formed in the current bar and the first end section of the conductive spring element has at least one Z-shaped tongue which extends from the upper side of the current bar through the recess to the underside of the current bar, so that the free end of the tongue bears against the underside of the current bar.
Growing system with plants, for example vegetables and ornamental plants, comprising: - a series of container trays, and - a liquid reservoir for floatably holding said series of container trays; the container trays: - configured to float on nutrient water in the liquid reservoir; - comprising a series of openings arranged in a tray bottom of the container tray for bringing growth substrates which are arranged on the container tray into contact with the nutrient water, characterized in that the container trays: - are substantially flat container trays of which the tray bottoms are substantially flat tray bottoms comprising an upright tray edge extending at least 10 mm from the tray bottoms, and wherein the openings each comprise a conical upright opening edge which extend at least 10 mm from the tray bottoms; - have a height which keeps said container trays with said plants in said openings floating with said tray bottoms resting in the nutrient water; - situate the growth substrates above a water line of the nutrient water, with said opening edges holding said growth substrates with roots of said plants extending to or into said nutrient water and said plants extending above said container trays; - comprise a series of containers for supporting the growth substrates, wherein said series of containers are removably arrangable on the conical upright opening edges. - a series of container trays, and - a liquid reservoir for floatably holding said series of container trays; the container trays: - configured to float on nutrient water in the liquid reservoir; - comprising a series of openings arranged in a tray bottom of the container tray for bringing growth substrates which are arranged on the container tray into contact with the nutrient water, - configured to float on nutrient water in the liquid reservoir; - comprising a series of openings arranged in a tray bottom of the container tray for bringing growth substrates which are arranged on the container tray into contact with the nutrient water, - are substantially flat container trays of which the tray bottoms are substantially flat tray bottoms comprising an upright tray edge extending at least 10 mm from the tray bottoms, and wherein the openings each comprise a conical upright opening edge which extend at least 10 mm from the tray bottoms; - have a height which keeps said container trays with said plants in said openings floating with said tray bottoms resting in the nutrient water; - situate the growth substrates above a water line of the nutrient water, with said opening edges holding said growth substrates with roots of said plants extending to or into said nutrient water and said plants extending above said container trays; - comprise a series of containers for supporting the growth substrates, wherein said series of containers are removably arrangable on the conical upright opening edges.