mhurhangee/ep-ind-claims huggingface dataset:
A geosynthetic binder dry composition comprising at least: - an alkalino-calcium type activator comprising at least lime and an alkaline salt, which is adapted to react together so as to form in situ a base in the presence of water, and - a silico-aluminous compound, comprising an amount of calcium oxide higher than or equal to 15%, by weight, as compared to the silico-aluminous compound total weight, characterized in that the binder dry composition comprises, by weight, as compared to its total weight, from 45 to 95% of said silico-aluminous compound, from 2 to 25% of lime and from 3 to 30% of an alkaline salt. - an alkalino-calcium type activator comprising at least lime and an alkaline salt, which is adapted to react together so as to form in situ a base in the presence of water, and - a silico-aluminous compound, comprising an amount of calcium oxide higher than or equal to 15%, by weight, as compared to the silico-aluminous compound total weight,
A process for the preparation of a compound (IIIa) comprising the step (i) reacting a triazolo compound of formula with a Grignard reagent R 1 MgQ, wherein the variables are defined as follows: R is an organic group; Q is R 1 or X, wherein X is halogen; and R 1 is (C 1 -C 10)-alkyl, (C 2 -C 10)-alkenyl, (C 2 -C 10)-alkynyl, (C 3 -C 8)-cycloalkyl or (C 6 -C 10)-aryl, wherein the aryl is unsubstituted or substituted by one, two or three groups independently selected from the group consisting of halogen and (C 1 -C 4)-alkyl. (i) reacting a triazolo compound of formula with a Grignard reagent R 1 MgQ, wherein the variables are defined as follows: R is an organic group; Q is R 1 or X, wherein X is halogen; and R 1 is (C 1 -C 10)-alkyl, (C 2 -C 10)-alkenyl, (C 2 -C 10)-alkynyl, (C 3 -C 8)-cycloalkyl or (C 6 -C 10)-aryl, wherein the aryl is unsubstituted or substituted by one, two or three groups independently selected from the group consisting of halogen and (C 1 -C 4)-alkyl. R is an organic group; Q is R 1 or X, wherein X is halogen; and R 1 is (C 1 -C 10)-alkyl, (C 2 -C 10)-alkenyl, (C 2 -C 10)-alkynyl, (C 3 -C 8)-cycloalkyl or (C 6 -C 10)-aryl, wherein the aryl is unsubstituted or substituted by one, two or three groups independently selected from the group consisting of halogen and (C 1 -C 4)-alkyl.
A multiple-antenna space multiplexing system using enhancement signal detection comprising: a signal reception module for receiving signals coded and modulated by a transmitter via an antenna; a signal form transform module for transforming form of a channel matrix H and the received signal vector r, wherein a principle of form transforming of the channel matrix H and the received signal vector r is: H 1 = Re H Im H, H 2 = - Im H Re H, r T 1 ʹ = Re r T 1 Im r T 1, r T 2 ʹ = Re r T 2 Im r T 2, where Re, Re( r T 1) and Re( r T 2) indicate a real part of complex signal, Im, Im( r T 1) and Im( r T 2) indicate an imaginary part of complex signal; a signal detection module for detecting the received signals; a signal reconstruction module for reconstructing the detection results of in the signal detection module, and obtaining a detected signal s̃; a demodulation decoding module for demodulating and decoding the output of the signal reconstruction module, and outputting bit information. a signal reception module for receiving signals coded and modulated by a transmitter via an antenna; a signal form transform module for transforming form of a channel matrix H and the received signal vector r, wherein a principle of form transforming of the channel matrix H and the received signal vector r is: H 1 = Re H Im H, H 2 = - Im H Re H, r T 1 ʹ = Re r T 1 Im r T 1, r T 2 ʹ = Re r T 2 Im r T 2, where Re, Re( r T 1) and Re( r T 2) indicate a real part of complex signal, Im, Im( r T 1) and Im( r T 2) indicate an imaginary part of complex signal; H 1 = Re H Im H, H 2 = - Im H Re H, r T 1 ʹ = Re r T 1 Im r T 1, r T 2 ʹ = Re r T 2 Im r T 2, where Re, Re( r T 1) and Re( r T 2) indicate a real part of complex signal, Im, Im( r T 1) and Im( r T 2) indicate an imaginary part of complex signal; a signal detection module for detecting the received signals; a signal reconstruction module for reconstructing the detection results of in the signal detection module, and obtaining a detected signal s̃; a demodulation decoding module for demodulating and decoding the output of the signal reconstruction module, and outputting bit information.
A method, comprising: obtaining a direct user equipment communication toggling message at a base station of a first radio system; interpreting at the base station physical layer signaling over a first radio interface between said base station and a user equipment based on the toggling message, wherein the first radio interface uses a first frequency of said first radio system; and scheduling at the base station a direct user equipment pair (510; 520) comprising said user equipment on a second frequency of a second, different radio system based on the interpreting, wherein the toggling message comprises a triggering message to initiate direct user equipment communication or an exit message to terminate direct user equipment communication. obtaining a direct user equipment communication toggling message at a base station of a first radio system; interpreting at the base station physical layer signaling over a first radio interface between said base station and a user equipment based on the toggling message, wherein the first radio interface uses a first frequency of said first radio system; and scheduling at the base station a direct user equipment pair (510; 520) comprising said user equipment on a second frequency of a second, different radio system based on the interpreting, wherein the toggling message comprises a triggering message to initiate direct user equipment communication or an exit message to terminate direct user equipment communication.
Method for automatically configuring a router in a network, wherein the router has at least one upstream interface connected or connectable to a higher-level subnetwork and/or a higher-level router and at least one downstream interface connected or connectable to a lower-level subnetwork, characterized in that monitoring is performed to determine whether the router receives on the at least one upstream interface messages that are used to announce at least one domain, and if no such message was received over a prescribed period then a DNS island mode is automatically activated in which the DNS zone of a local DNS server of the router is configured using a predefined island domain, and a transmitting module of the router is prompted to send via at least one downstream interface at least one message comprising the preconfigured island domain.
A method for treating water containing pollutants, the method comprising the steps of, bringing said water in contact with magnetoelectric particles which are located inside a tubular vessel of a water cleaning reactor (101,102, 103), so that the pollutants in the water come into contact with the surfaces of magnetoelectric particles; applying an alternating magnetic field to the magnetoelectric particles so as to generate electric charges on the surface of said magnetoelectric particles, wherein said electric charges on the surface of said magnetoelectric particles cause redox reactions to occur which degrade said pollutants in the water, wherein said alternating magnetic field is generated by one or more coils which are wound around the vessel; wherein each of said magnetoelectric particles comprise a magnetostrictive material and piezoelectric material, wherein said magnetoelectric particles comprise a plurality of magnetostrictive layers each magnetostrictive layer coated by a respective piezoelectric coating, and/or, said magnetoelectric particles comprise a magnetostrictive core embedded in a piezoelectric matrix, and/or said magnetoelectric particles comprise a magnetostrictive core coated with a piezoelectric coating. bringing said water in contact with magnetoelectric particles which are located inside a tubular vessel of a water cleaning reactor (101,102, 103), so that the pollutants in the water come into contact with the surfaces of magnetoelectric particles; applying an alternating magnetic field to the magnetoelectric particles so as to generate electric charges on the surface of said magnetoelectric particles, wherein said electric charges on the surface of said magnetoelectric particles cause redox reactions to occur which degrade said pollutants in the water, wherein said alternating magnetic field is generated by one or more coils which are wound around the vessel; wherein each of said magnetoelectric particles comprise a magnetostrictive material and piezoelectric material, wherein said magnetoelectric particles comprise a plurality of magnetostrictive layers each magnetostrictive layer coated by a respective piezoelectric coating, and/or, said magnetoelectric particles comprise a magnetostrictive core embedded in a piezoelectric matrix, and/or said magnetoelectric particles comprise a magnetostrictive core coated with a piezoelectric coating.
A microcontroller comprising: a central processing unit having an instruction set; an instruction memory coupled with the central processing unit and comprising a first memory area (200, 300) and a second memory area (210, 310) which are configured to be individually programmable, wherein the first memory area and the second memory are are assigned to be an active memory area from which instructions are executed and an inactive memory area, respectively; wherein the instruction set for the central processing unit comprises a dedicated instruction having an associated opcode, wherein the dedicated instruction can only be executed after a software interlock has been unlocked by execution of an unlocking instruction sequence, wherein a memory area swap is performed by executing the dedicated instruction in the active memory area, whereupon the inactive memory area becomes the new active memory area and the active memory area becomes the new inactive memory area and execution of instructions continues in the new active memory area at a target specified by a program flow instruction directly following the dedicated instruction in the previously active memory area. a central processing unit having an instruction set; an instruction memory coupled with the central processing unit and comprising a first memory area (200, 300) and a second memory area (210, 310) which are configured to be individually programmable, wherein the first memory area and the second memory are are assigned to be an active memory area from which instructions are executed and an inactive memory area, respectively; wherein the instruction set for the central processing unit comprises a dedicated instruction having an associated opcode, wherein the dedicated instruction can only be executed after a software interlock has been unlocked by execution of an unlocking instruction sequence, wherein a memory area swap is performed by executing the dedicated instruction in the active memory area, whereupon the inactive memory area becomes the new active memory area and the active memory area becomes the new inactive memory area and execution of instructions continues in the new active memory area at a target specified by a program flow instruction directly following the dedicated instruction in the previously active memory area.
A vehicle control device configured to control a vehicle, the vehicle comprising: a left-right pair of steered wheels of which braking/driving forces can be controlled for each of left and right; another wheel provided separately from the left-right pair of steered wheels; and a steering force generation device configured to generate a steering force for the steered wheels and configured to control a steering angle of the steered wheels, wherein the vehicle control device is configured to control the steering force or steering reaction force of the steering force generation device by controlling the braking/driving forces for each of the steered wheels on the basis of a lateral force acting on the steered wheels, characterized in that the vehicle control device is further configured to control braking/driving forces of the other wheel so as to compensate excess or deficiency of a yaw moment generated by controlling the braking/driving forces of the steered wheels. wherein the vehicle control device is configured to control the steering force or steering reaction force of the steering force generation device by controlling the braking/driving forces for each of the steered wheels on the basis of a lateral force acting on the steered wheels, characterized in that the vehicle control device is further configured to control braking/driving forces of the other wheel so as to compensate excess or deficiency of a yaw moment generated by controlling the braking/driving forces of the steered wheels.
A method for detecting breast cancer, comprising; (a) contacting a suitable bodily fluid sample obtained from a subject at risk of breast cancer with the polypeptide GPR157 (SEQ ID NO: 43) or antigenic fragments thereof; wherein the contacting occurs under conditions suitable for selective binding of antibodies in the bodily fluid sample to the polypeptide; and (b) detecting presence of antibodies to the polypeptides in the bodily fluid sample; wherein the presence of antibodies to the polypeptide indicates a likelihood of breast cancer in the subject. (a) contacting a suitable bodily fluid sample obtained from a subject at risk of breast cancer with the polypeptide GPR157 (SEQ ID NO: 43) or antigenic fragments thereof; wherein the contacting occurs under conditions suitable for selective binding of antibodies in the bodily fluid sample to the polypeptide; and (b) detecting presence of antibodies to the polypeptides in the bodily fluid sample;
A container for receiving radioactive wastes and for receiving spent fuel elements - with a container outer wall, a container bottom connected to the container outer wall and with at least one container lid -, wherein the container outer wall comprises form-fit elements on the inner side of the container in its upper lid-side edge region distributed over the inner circumference of the container outer wall, wherein the container lid is provided at its outer edge with complementary form-fit elements distributed over its outer circumference and wherein the container lid is or can be connected in a form-fit manner to the container outer wall by means of the form-fit interaction of its complementary form-fit elements with the form-fit elements of the container outer wall and wherein the container lid is or can be connected to the container outer wall free from weld joints, characterised in that the form-fit elements and/or the complementary form-fit elements are constituted in the form of grooves, and more precisely are constituted as grooves with at least two groove sections (20, 21) arranged perpendicular or essentially perpendicular to one another.
Electrodes for lithium ion and post lithium ion batteries comprising as active material: silicon (Si), or germanium (Ge), or tin (Sn), or SnOX Tin Oxide 0.1<x<2, or silicon oxide SiOx 0.1<x<2 or Antimony-Tin (SnSb) or Sulfur; as a binder polymer: a PVDF polymer-based materials, SBR or other binder polymer which can be dissolved in an organic solvent and / or aqueous; that uses as additives materials carbon nanohorns type dahlia, SWCNH - Single Wall Carbon nanohorns, said type of dahlia carbon nanohorns additive materials, SWCNH - Single Wall Carbon nanohorns, are doped with heteroatoms said heteroatoms are nitrogen.
A supported Ziegler-Natta catalyst system comprising at least one aluminum compound as cocatalyst and a solid catalyst component, the solid catalyst component comprising a porous particulate support, a titanium compound, a magnesium component containing at least one halogen, and a diether compound as the only internal electron donor, and having an activity and hydrogen response suitable for the production of propylene polymers having a molecular weight distribution (PI), as measured according to the method disclosed in present specification, in the range from 5.75 to 9, wherein the porous particulate support consists of oxides of silicon, aluminum, titanium, zirconium, metals from Groups I or II of the Periodic Table, or mixtures or chemical combinations of these oxides, and wherein the porous particulate support has a mean particle diameter, as measured according to the method disclosed in present specification, in the range from 15 to 200 μm, wherein the diether compound is used in an amount of from 0.6 to 2 mole for each mole of the magnesium component containing at least one halogen. comprising at least one aluminum compound as cocatalyst and a solid catalyst component, the solid catalyst component comprising a porous particulate support, a titanium compound, a magnesium component containing at least one halogen, and a diether compound as the only internal electron donor, and having an activity and hydrogen response suitable for the production of propylene polymers having a molecular weight distribution (PI), as measured according to the method disclosed in present specification, in the range from 5.75 to 9, wherein the porous particulate support consists of oxides of silicon, aluminum, titanium, zirconium, metals from Groups I or II of the Periodic Table, or mixtures or chemical combinations of these oxides, and wherein the porous particulate support has a mean particle diameter, as measured according to the method disclosed in present specification, in the range from 15 to 200 μm, wherein the diether compound is used in an amount of from 0.6 to 2 mole for each mole of the magnesium component containing at least one halogen.
An endoscopic forceps, comprising: a housing having a shaft that extends therefrom defining a longitudinal axis therethrough; an end effector assembly operatively connected to a distal end of the shaft and having a pair of first and second jaw members, the first and second jaw members movable relative to one another from an open position wherein the first and second jaw members are disposed in spaced relation relative to one another, to a clamping position wherein the first and second jaw members cooperate to grasp tissue therebetween; and a drive assembly operably coupled to a handle assembly associated with the housing, the drive assembly including a wire having a proximal end and a distal end, characterised in that said distal end is split and has a split wire configuration including two ends that operably couple to respective ones of the first and second jaw members, the two ends configured to impart movement of respective ones of the first and second jaw members when the handle assembly is actuated, wherein at least one of the two ends forms a spring component that is operably associated with at least one of the first and second jaw members and is configured to bias the jaw members in the open position. a housing having a shaft that extends therefrom defining a longitudinal axis therethrough; an end effector assembly operatively connected to a distal end of the shaft and having a pair of first and second jaw members, the first and second jaw members movable relative to one another from an open position wherein the first and second jaw members are disposed in spaced relation relative to one another, to a clamping position wherein the first and second jaw members cooperate to grasp tissue therebetween; and a drive assembly operably coupled to a handle assembly associated with the housing, the drive assembly including a wire having a proximal end and a distal end, characterised in that said distal end is split and has a split wire configuration including two ends that operably couple to respective ones of the first and second jaw members, the two ends configured to impart movement of respective ones of the first and second jaw members when the handle assembly is actuated, wherein at least one of the two ends forms a spring component that is operably associated with at least one of the first and second jaw members and is configured to bias the jaw members in the open position.
A method comprising: receiving, at a user equipment while being served by a first system and during protocol data unit, PDU, session modification procedure, a PDU SESSION MODIFICATION COMMAND message including an access point name aggregate maximum bit rate value of a second system; and setting, at the user equipment, an access point name aggregate maximum bit rate value of a session management context for the second system to the access point name aggregate maximum bit rate value of the second system that was received in the PDU SESSION MODIFICATION COMMAND message while being served by the first system, when there is an inter-system change from the first system to the second system. receiving, at a user equipment while being served by a first system and during protocol data unit, PDU, session modification procedure, a PDU SESSION MODIFICATION COMMAND message including an access point name aggregate maximum bit rate value of a second system; and setting, at the user equipment, an access point name aggregate maximum bit rate value of a session management context for the second system to the access point name aggregate maximum bit rate value of the second system that was received in the PDU SESSION MODIFICATION COMMAND message while being served by the first system, when there is an inter-system change from the first system to the second system.
An insoluble sulfur production system, comprising a polymeric kettle having a first discharge port and a quenching tower having a feed port, wherein the first discharge port is in communication with the feed port, and the quenching tower comprises a cylindrical housing, a granulation device and a shear pump, the housing comprises a feed quenching section and a discharging section that are arranged from top to bottom, and the side wall of the housing is provided with a solvent inlet for providing a solvent and a quenching agent inlet for providing a quenchant, wherein: the feed port is arranged on the feed quenching section, and the granulation device is arranged near the feed port and positioned in the feed quenching section; the discharging section is provided with a second discharge port and a filter screen above the second discharge port, and the side wall of the discharging section is provided with a circulating outlet and a circulating inlet in communication with an inlet and an outlet of the shear pump respectively above the filter screen. the feed port is arranged on the feed quenching section, and the granulation device is arranged near the feed port and positioned in the feed quenching section; the discharging section is provided with a second discharge port and a filter screen above the second discharge port, and the side wall of the discharging section is provided with a circulating outlet and a circulating inlet in communication with an inlet and an outlet of the shear pump respectively above the filter screen.
Process for the production of metal-ceramic substrates, characterized by the following process steps: a. providing an unstructured metal-ceramic substrate having metal coatings on both sides of the ceramic substrate, and having a first individualized encoding on the ceramic substrate; b. structuring the double-sided metal coating of the metal-ceramic substrate; c. providing the metal-ceramic substrate with a second individualized coding on one of the metal coatings or on both metal coatings of the metal-ceramic substrate. a. providing an unstructured metal-ceramic substrate having metal coatings on both sides of the ceramic substrate, and having a first individualized encoding on the ceramic substrate; b. structuring the double-sided metal coating of the metal-ceramic substrate; c. providing the metal-ceramic substrate with a second individualized coding on one of the metal coatings or on both metal coatings of the metal-ceramic substrate.