mhurhangee/ep-ind-claims huggingface dataset:
Electromechanical actuator for controlling screens, comprising a brushless direct current electronically controlled electric motor, a rotor and a stator of the electric motor being positioned coaxially around an axis of rotation, the rotor comprising a cylindrical rotor body fitted with magnetic elements distributed over the exterior surface of the rotor, the magnetic elements of the rotor being surrounded by the stator, itself formed by a stator core comprising a circular peripheral wall and polar elements supporting windings, the polar elements being distributed over the peripheral wall and the rotor equipped with magnetic elements being positioned in a cylindrical internal space with a circular section of the stator, the electromechanical actuator being characterised in that the exterior diameter of the electric motor of the actuator is less than 40 mm, preferably less than 36 mm, whilst the magnetic elements are formed by permanent magnets made of ferrite, the radial thickness of which has a maximum value, over a section taken transversely to the axis of rotation, which is greater than 3 mm.
A method for transmitting digital data, said method comprising the steps of generating a first modulated signal by modulating digital data of a first service; generating a second modulated signal by modulating digital data of a second service; up-sampling the first modulated signal by inserting (M-1) zeroes between every two consecutive samples of the first modulated signal, M being a positive integer greater than 1; generating a compound signal by adding the up-sampled signal and the second modulated signal; interleaving the compound signal by applying a permutation to a block of consecutive samples of the compound signal, said permutation being adapted such that a subset consisting of every M-th sample of the block is mapped onto itself, said subset of every M-th sample consisting of samples of the compound signal that are the sum of a sample of the first modulated signal and a sample of the second modulated signal; and transmitting the interleaved compound signal, wherein the interleaving step further comprises demultiplexing (210, 211) the compound signal into a first sequence of samples consisting of every M-th sample of the compound signal and into a second sequence of samples consisting of the samples of the compound signal that are not part of the first sequence of samples, the first sequence of samples consisting of the samples that are the sum of a sample of the first modulated signal and a sample of the second modulated signal; applying a first interleaving process (220, 230) to the first sequence of samples; applying a second interleaving process (221, 231) to the second sequence of samples; and re-multiplexing (240, 241, 250) the interleaved first sequence of samples and the interleaved second sequence of samples to obtain the interleaved compound signal.
An edible composite of carbon dioxide or nitrous oxide gas hydrate and ice, characterized in that it comprises from 0.0001 to 2 wt% of an ice structuring protein.
A bag filter arrangement for being arranged in a bag filter holder, said bag filter arrangement comprises: a bag filter having an end portion encompassing an open end of the bag filter; a bag filter seal for sealing against said bag filter holder, said bag filter seal being arranged to hold said bag filter, said bag filter seal comprising a bag filter facing surface; wherein said bag filter seal comprises a recess on said bag filter facing surface, said recess being arranged to receive said open end portion of said bag filter, said bag filter seal comprises an opening, said opening being fluidly connected to an inside of said bag filter, said bag filter seal comprises an inner surface extending from said opening to an inside of said bag filter, and wherein said bag filter seal comprises an outer surface extending from said opening to an outside of said bag filter, said outer surface comprises a sealing protrusion arranged to seal against the bag filter holder, the sealing protrusion protruding in a radial direction from a central axis of the bag filter arrangement, characterized in that said sealing protrusion is a first sealing protrusion and wherein said outer surface further comprises a second sealing protrusion arranged to seal against the bag filter holder, and wherein said bag filter seal further comprises a nook arranged between said first and said second sealing protrusions. a bag filter having an end portion encompassing an open end of the bag filter; a bag filter seal for sealing against said bag filter holder, said bag filter seal being arranged to hold said bag filter, said bag filter seal comprising a bag filter facing surface; wherein said bag filter seal comprises a recess on said bag filter facing surface, said recess being arranged to receive said open end portion of said bag filter, said bag filter seal comprises an opening, said opening being fluidly connected to an inside of said bag filter, said bag filter seal comprises an inner surface extending from said opening to an inside of said bag filter, and wherein said bag filter seal comprises an outer surface extending from said opening to an outside of said bag filter, said outer surface comprises a sealing protrusion arranged to seal against the bag filter holder, the sealing protrusion protruding in a radial direction from a central axis of the bag filter arrangement, characterized in that said sealing protrusion is a first sealing protrusion and wherein said outer surface further comprises a second sealing protrusion arranged to seal against the bag filter holder, and wherein said bag filter seal further comprises a nook arranged between said first and said second sealing protrusions.
A coil tubing bottom hole assembly comprising: a jetting tool; a non-caged ball sub coupled to the jetting tool; a ported sub coupled to the non-caged ball sub, characterized by a caged ball sub coupled to the ported sub; and a spring operable to open and close the ported sub.
Sanitary installation system comprising a mounting structure which is able to be connected fixedly to a building, at least one panelling element which conceals the mounting structure, and at least one water-conducting sanitary element, wherein the mounting structure and the at least one panelling element define a cavity, wherein at least one of the water-conducting elements is arranged in the cavity, and wherein at least one sound-absorption element is arranged in the cavity, wherein the at least one sound-absorption element is fastened by way of at least one fastening element to the mounting structure, characterized in that the sound-absorption element is suspended in a free-hanging, and in particular free-swinging, manner from the mounting structure in the cavity at an upper end of the sound-absorption element by way of the at least one fastening element. a mounting structure which is able to be connected fixedly to a building, at least one panelling element which conceals the mounting structure, and at least one water-conducting sanitary element, wherein the mounting structure and the at least one panelling element define a cavity, wherein at least one of the water-conducting elements is arranged in the cavity, and wherein at least one sound-absorption element is arranged in the cavity, wherein the at least one sound-absorption element is fastened by way of at least one fastening element to the mounting structure, characterized in that the sound-absorption element is suspended in a free-hanging, and in particular free-swinging, manner from the mounting structure in the cavity at an upper end of the sound-absorption element by way of the at least one fastening element.
A method for fabricating a heterojunction photovoltaic cell, comprising - providing a crystalline silicon substrate, - providing a thin passivation layer on a first main surface of said substrate; - performing a plasma treatment, comprising treating said thin passivation layer with a hydrogen plasma; - providing a second layer on said thin passivation layer, said second layer comprising amorphous silicon; characterized in that said plasma treatment is performed before providing said second layer. - providing a crystalline silicon substrate, - providing a thin passivation layer on a first main surface of said substrate; - performing a plasma treatment, comprising treating said thin passivation layer with a hydrogen plasma; - providing a second layer on said thin passivation layer, said second layer comprising amorphous silicon;
A digging apparatus including: a handle assembly (14, 14a), a motor, a switch member electrically connected with said motor, said switch member being movable between a first position in which operation of said motor is allowed and a second position in which operation of said motor is prevented, and a digging tool (88, 88a) drivable by said motor, said digging tool having a longitudinal axis (M-M, P-P), characterized in that, when said switch member is in said first position, said motor is adapted to drive said digging tool to rotate about said longitudinal axis in a first rotational direction in response to movement of said handle assembly in a first direction, and said motor is adapted to drive said digging tool to rotate about said longitudinal axis in a second rotational direction which is opposite to said first rotational direction in response to movement of said handle assembly in a second direction which is substantially opposite to said first direction. a handle assembly (14, 14a), a motor, a switch member electrically connected with said motor, said switch member being movable between a first position in which operation of said motor is allowed and a second position in which operation of said motor is prevented, and a digging tool (88, 88a) drivable by said motor, said digging tool having a longitudinal axis (M-M, P-P), characterized in that, when said switch member is in said first position, said motor is adapted to drive said digging tool to rotate about said longitudinal axis in a first rotational direction in response to movement of said handle assembly in a first direction, and said motor is adapted to drive said digging tool to rotate about said longitudinal axis in a second rotational direction which is opposite to said first rotational direction in response to movement of said handle assembly in a second direction which is substantially opposite to said first direction.
Solid form composition including: - at least a biologically active substance selected from the group including microorganisms; and - at least a viscosizing agent selected from the group of tara gum for use in the prevention and/or curative treatment of the infective pathologies of the rectum and the vagina by rectally or vaginally internal administration. - at least a biologically active substance selected from the group including microorganisms; and - at least a viscosizing agent selected from the group of tara gum for use in the prevention and/or curative treatment of the infective pathologies of the rectum and the vagina by rectally or vaginally internal administration.
Electronic device (600; 700) comprising: - a modulator-demodulator circuit; - a first integrated circuit (603; 703) implementing a first subscriber identification module; and at least one second integrated circuit intended to implement a second subscriber identification module, wherein a sequencing terminal of the first circuit and a sequencing terminal of the second circuit are connected to a same sequencing terminal of the modulator-demodulator circuit, characterized in that a first data transmit-receive terminal of the first circuit (603; 703) is connected to a data transmit-receive terminal of the modulator-demodulator circuit. - a modulator-demodulator circuit; - a first integrated circuit (603; 703) implementing a first subscriber identification module; and
A method of conducting radiofluorination of a substrate, comprising the steps of: (a) contacting an aqueous solution of [ 18 F] fluoride with a polymer supported phosphazene base selected from a phosphazene of the general formula supported on polystyrene (P PS -P 2 R), and a phosphazene of the formula supported on PEG-coated polystyrene (P PS-PEG -P 2 Bz), for sufficient time for trapping of [ 18 F] fluoride on the polymer supported phosphazene base; and (b) contacting a solution of the substrate with the polymer supported phosphazene base having [ 18 F] fluoride trapped thereon obtained in step (a) for sufficient time for a radiofluorination reaction to take place. (a) contacting an aqueous solution of [ 18 F] fluoride with a polymer supported phosphazene base selected from a phosphazene of the general formula supported on polystyrene (P PS -P 2 R), and a phosphazene of the formula supported on PEG-coated polystyrene (P PS-PEG -P 2 Bz), for sufficient time for trapping of [ 18 F] fluoride on the polymer supported phosphazene base; and (b) contacting a solution of the substrate with the polymer supported phosphazene base having [ 18 F] fluoride trapped thereon obtained in step (a) for sufficient time for a radiofluorination reaction to take place.
A method of making a photovoltaic device including: providing a substrate; forming a compact layer on the substrate; characterised in that: a) the compact layer is coated with a perovskite precursor solution including metal oxide nanoparticles and a perovskite precursor and said perovskite precursor solution is exposed to NIR radiation so the metal oxide nanoparticles form a scaffold for the perovskites formed from the perovskite precursor solution which can allow for light absorption and electron transportation in the compact layer when exposed to light, following which a conductor layer is attached to the scaffold, or b) a precursor solution including metal oxide is formed on the compact layer and treated with NIR radiation to form a scaffold and then a perovskite precursor solution is applied to the scaffold and exposed to NIR radiation so the perovskites formed from the perovskite precursor solution can allow for light absorption and electron transportation in the compact layer when exposed to light, following which a conductor layer is attached to the scaffold. providing a substrate; forming a compact layer on the substrate; characterised in that: a) the compact layer is coated with a perovskite precursor solution including metal oxide nanoparticles and a perovskite precursor and said perovskite precursor solution is exposed to NIR radiation so the metal oxide nanoparticles form a scaffold for the perovskites formed from the perovskite precursor solution which can allow for light absorption and electron transportation in the compact layer when exposed to light, following which a conductor layer is attached to the scaffold, or b) a precursor solution including metal oxide is formed on the compact layer and treated with NIR radiation to form a scaffold and then a perovskite precursor solution is applied to the scaffold and exposed to NIR radiation so the perovskites formed from the perovskite precursor solution can allow for light absorption and electron transportation in the compact layer when exposed to light, following which a conductor layer is attached to the scaffold. a) the compact layer is coated with a perovskite precursor solution including metal oxide nanoparticles and a perovskite precursor and said perovskite precursor solution is exposed to NIR radiation so the metal oxide nanoparticles form a scaffold for the perovskites formed from the perovskite precursor solution which can allow for light absorption and electron transportation in the compact layer when exposed to light, following which a conductor layer is attached to the scaffold, or b) a precursor solution including metal oxide is formed on the compact layer and treated with NIR radiation to form a scaffold and then a perovskite precursor solution is applied to the scaffold and exposed to NIR radiation so the perovskites formed from the perovskite precursor solution can allow for light absorption and electron transportation in the compact layer when exposed to light, following which a conductor layer is attached to the scaffold.
A data storage device, comprising: a storage medium including a first subset configured to store user data and a second subset configured to store snapshot data; a controller configured to: receive, from a host operably coupled to the data storage device, a command to configure the second subset; characterised in that the controller is configured to verify an authenticity of the command; and execute the command in response to the verification of the authenticity of the command, wherein the controller is configured to verify the authenticity of the command by verifying that the command has been signed with a predetermined cryptographic key, wherein the predetermined cryptographic key is generated by the data storage device and provided to the host device during an initial configuration of the data storage device, and wherein the command to configure the second subset is a command to overwrite snapshot data stored in the second subset. a storage medium including a first subset configured to store user data and a second subset configured to store snapshot data; a controller configured to: receive, from a host operably coupled to the data storage device, a command to configure the second subset; characterised in that the controller is configured to verify an authenticity of the command; and execute the command in response to the verification of the authenticity of the command, wherein the controller is configured to verify the authenticity of the command by verifying that the command has been signed with a predetermined cryptographic key, wherein the predetermined cryptographic key is generated by the data storage device and provided to the host device during an initial configuration of the data storage device, and wherein the command to configure the second subset is a command to overwrite snapshot data stored in the second subset. verify an authenticity of the command; and execute the command in response to the verification of the authenticity of the command, wherein the controller is configured to verify the authenticity of the command by verifying that the command has been signed with a predetermined cryptographic key, wherein the predetermined cryptographic key is generated by the data storage device and provided to the host device during an initial configuration of the data storage device, and wherein the command to configure the second subset is a command to overwrite snapshot data stored in the second subset.
An electrochemical reaction unit comprising: a single cell including an electrolyte layer containing solid oxide, and a cathode and an anode which face each other in a first direction with the electrolyte layer intervening therebetween; a current collector disposed on a cathode side of the single cell and having a protrusion protruding toward the cathode; an electrically conductive coat covering a surface of the current collector; and an electrically conductive bonding layer bonding the cathode and the protrusion covered with the coat; the electrochemical reaction unit being characterized in that in all sections of the protrusion taken in parallel with the first direction, a corner portion of the protrusion covered with the coat is covered with the bonding layer, wherein the current collector has a plurality of the protrusions, and the bonding layer is applied by printing to those portions of the surface of the cathode which face distal end portions of the protrusions, such that the protrusions are bonded to the cathode by means of respective bonding layers each having a predetermined size. a single cell including an electrolyte layer containing solid oxide, and a cathode and an anode which face each other in a first direction with the electrolyte layer intervening therebetween; a current collector disposed on a cathode side of the single cell and having a protrusion protruding toward the cathode; an electrically conductive coat covering a surface of the current collector; and an electrically conductive bonding layer bonding the cathode and the protrusion covered with the coat; the electrochemical reaction unit being characterized in that in all sections of the protrusion taken in parallel with the first direction, a corner portion of the protrusion covered with the coat is covered with the bonding layer, wherein the current collector has a plurality of the protrusions, and the bonding layer is applied by printing to those portions of the surface of the cathode which face distal end portions of the protrusions, such that the protrusions are bonded to the cathode by means of respective bonding layers each having a predetermined size.
A method for wireless communication by a Mobility Management Entity, MME, when the network is overloaded, comprising: receiving a service request message comprising a data packet from a user equipment, UE, during a communication session; detecting whether the data packet is the last data packet for transmission or reception by the UE during the communication session, if the data packet is the last data packet, the method further comprising: processing the data packet; and transmitting a service accept message including an indication of a back-off timer to the UE, wherein the service accept message indicates to the UE that the data packet has been processed, if the data packet is not the last data packet, the method further comprising: discarding the data packet; and transmitting a service reject message including an indication of a back-off timer to the UE, wherein, in each case, the back-off timer indicates a time period during which the UE is to defer data transmissions to the network node. receiving a service request message comprising a data packet from a user equipment, UE, during a communication session; detecting whether the data packet is the last data packet for transmission or reception by the UE during the communication session, if the data packet is the last data packet, the method further comprising: processing the data packet; and transmitting a service accept message including an indication of a back-off timer to the UE, wherein the service accept message indicates to the UE that the data packet has been processed, processing the data packet; and transmitting a service accept message including an indication of a back-off timer to the UE, wherein the service accept message indicates to the UE that the data packet has been processed, if the data packet is not the last data packet, the method further comprising: discarding the data packet; and transmitting a service reject message including an indication of a back-off timer to the UE, wherein, in each case, the back-off timer indicates a time period during which the UE is to defer data transmissions to the network node. discarding the data packet; and transmitting a service reject message including an indication of a back-off timer to the UE, wherein, in each case, the back-off timer indicates a time period during which the UE is to defer data transmissions to the network node.