mhurhangee/ep-ind-claims huggingface dataset:
A lithium pouch battery, comprising: an electrode assembly including a positive electrode, a negative electrode, and a separator between the positive electrode and the negative electrode; and an oriented polystyrene, OPS, film attached to at least one external side of the electrode assembly, wherein: the separator comprises a porous substrate and a coating layer on at least one side of the porous substrate, and the coating layer comprises a polymer, a ceramic, or a combination thereof, and the electrode assembly has a jelly-roll shape formed by sequentially winding the positive electrode, the separator, and the negative electrode, and the separator is wound at least one time more than the positive and negative electrode. an electrode assembly including a positive electrode, a negative electrode, and a separator between the positive electrode and the negative electrode; and an oriented polystyrene, OPS, film attached to at least one external side of the electrode assembly, the separator comprises a porous substrate and a coating layer on at least one side of the porous substrate, and the coating layer comprises a polymer, a ceramic, or a combination thereof, and the electrode assembly has a jelly-roll shape formed by sequentially winding the positive electrode, the separator, and the negative electrode, and the separator is wound at least one time more than the positive and negative electrode.
System for feed-back communication in real-time in a telecommunication network, the system comprising a server holding a communication service and client devices (1a, 1b, 1c,1d) connected to the server, characterized by the communication service continuously receiving client device information of the identification and location of the client devices (1a, 1b, 1c,1d), holding an algorithm, which continuously creates status and comparison information of each individual client device (1a, 1b, 1c,1d) in real-time as compared to any other client device(s) (1a, 1b, 1c, 1d), having means for managing the comparison information created by the algorithm in the form of a unique client-wise feed-back report based on the information for a given point of time, and sent to each client device (1a, 1b, 1c, 1d), the report received by each client device (1a, 1b, 1c,1d) being mutually different and subjective describing the location with respect to a given client device (1a, 1b, 1c, 1d) in relation to at least one other client device (1a, 1b, 1c, 1d), each client device (1a, 1b, 1c, 1d) acting or deciding on actions of how to move further based on the received status and comparison information, the decisions and actions made by each client device (1a, 1b, 1c, 1d) being mutually different.
A method for coating substrates with open pores and/or substrates with a structured surface, comprising the following method steps: a) providing a substrate with open pores and/or a structured surface, b) applying a material for a sealing layer by means of a first roller A to the substrate, c) distributing the applied material of the sealing layer and removing a part of the applied material of the sealing layer by means of a second roller B, and subsequently d) partially removing the applied amount of the material of the sealing layer from the pores and/or from the structured surface by means of at least one third roller C, in order to remove material of the sealing layer that has penetrated the pores before it cures and to thus make the structure and/or open-pored nature visible, wherein the roller C is a smooth roller, and e) treating the applied material of the sealing layer with a brush roller. a) providing a substrate with open pores and/or a structured surface, b) applying a material for a sealing layer by means of a first roller A to the substrate, c) distributing the applied material of the sealing layer and removing a part of the applied material of the sealing layer by means of a second roller B, and subsequently d) partially removing the applied amount of the material of the sealing layer from the pores and/or from the structured surface by means of at least one third roller C, in order to remove material of the sealing layer that has penetrated the pores before it cures and to thus make the structure and/or open-pored nature visible, wherein the roller C is a smooth roller, and e) treating the applied material of the sealing layer with a brush roller.
A method for controlling chemical signaling in a bioreactor of a closed cell expansion system, the method comprising: coating the bioreactor with the bioreactor in a first configuration, wherein, in the first configuration, the bioreactor comprises: a media bag connected to an attachment point fluidly associated with a first fluid flow path, wherein the first fluid flow path is fluidly associated with the bioreactor; and a waste bag connected, via a valve (690,692) and a waste line, to a circulation path (602, 604) of the bioreactor; loading cells into the bioreactor, wherein the cells are loaded from a cell inlet bag into the bioreactor; activating an intracapillary circulation pump to introduce media from the media bag into the bioreactor; thereafter, in a second configuration for the bioreactor, replacing the waste bag with a second media bag, wherein, in the second configuration, the valve (690,692) remains open; and after the replacing the waste bag with the second media bag, deactivating the intracapillary circulation pump to introduce media passively into the bioreactor from the second media bag through the waste line. coating the bioreactor with the bioreactor in a first configuration, wherein, in the first configuration, the bioreactor comprises: a media bag connected to an attachment point fluidly associated with a first fluid flow path, wherein the first fluid flow path is fluidly associated with the bioreactor; and a waste bag connected, via a valve (690,692) and a waste line, to a circulation path (602, 604) of the bioreactor; a media bag connected to an attachment point fluidly associated with a first fluid flow path, wherein the first fluid flow path is fluidly associated with the bioreactor; and a waste bag connected, via a valve (690,692) and a waste line, to a circulation path (602, 604) of the bioreactor; loading cells into the bioreactor, wherein the cells are loaded from a cell inlet bag into the bioreactor; activating an intracapillary circulation pump to introduce media from the media bag into the bioreactor; thereafter, in a second configuration for the bioreactor, replacing the waste bag with a second media bag, wherein, in the second configuration, the valve (690,692) remains open; and after the replacing the waste bag with the second media bag, deactivating the intracapillary circulation pump to introduce media passively into the bioreactor from the second media bag through the waste line.
A method for applying a hybrid thermal barrier coating to a component comprising a vane or blade, comprising: masking at least a portion of a pressure side of the vane or blade by applying a metallic sheet having one or more protrusions to at least said portion of said pressure side; inserting said one or more protrusions into one or more apertures along an edge on said pressure side; applying a first high thermal conductivity thermal barrier coating material to at least a portion of a second surface comprising a suction side of said vane or blade; removing said metallic sheet; and applying a second low thermal conductivity thermal barrier coating material to at least a portion of said first pressure side of said vane or blade; wherein said first coating material comprises a first thermal conductivity value greater than a second thermal conductivity value of said second coating material. masking at least a portion of a pressure side of the vane or blade by applying a metallic sheet having one or more protrusions to at least said portion of said pressure side; inserting said one or more protrusions into one or more apertures along an edge on said pressure side; applying a first high thermal conductivity thermal barrier coating material to at least a portion of a second surface comprising a suction side of said vane or blade; removing said metallic sheet; and applying a second low thermal conductivity thermal barrier coating material to at least a portion of said first pressure side of said vane or blade; wherein said first coating material comprises a first thermal conductivity value greater than a second thermal conductivity value of said second coating material.
A packet processing method, wherein the method comprises: receiving, by a network node of an access network, a first packet sent by a user terminal, wherein the first packet is used to request an Internet Protocol, IP, address from a Dynamic Host Configuration Protocol, DHCP, server; obtaining, by the network node, a second packet, wherein the second packet comprises the first packet, information about a port, and a Media Access Control, MAC, address of the user terminal; and sending, by the network node in the second packet, the first packet, the information about the port, and the MAC address of the user terminal to a controller, wherein the port is a port through which the network node receives the first packet and wherein the information about the port, and the MAC address of the user terminal are comprised outside of the first packet, wherein the first packet is a Dynamic Host Configuration Protocol discover, DHCP Discover, packet; or the first packet is a Dynamic Host Configuration Protocol request, DHCP Request, packet; or the first packet is a router solicitation, RS, message. receiving, by a network node of an access network, a first packet sent by a user terminal, wherein the first packet is used to request an Internet Protocol, IP, address from a Dynamic Host Configuration Protocol, DHCP, server; obtaining, by the network node, a second packet, wherein the second packet comprises the first packet, information about a port, and a Media Access Control, MAC, address of the user terminal; and sending, by the network node in the second packet, the first packet, the information about the port, and the MAC address of the user terminal to a controller, wherein the port is a port through which the network node receives the first packet and wherein the information about the port, and the MAC address of the user terminal are comprised outside of the first packet, wherein the first packet is a Dynamic Host Configuration Protocol discover, DHCP Discover, packet; or the first packet is a Dynamic Host Configuration Protocol request, DHCP Request, packet; or the first packet is a router solicitation, RS, message.
A fusion protein comprising a latency associated peptide which is the precursor domain of TGFβ-1, -2, -3, -4 or -5 and a pharmaceutically active agent in which the LAP and the pharmaceutically active agent are connected by an amino acid sequence comprising an aggrecanase proteolytic cleavage site cleaved by ADAMTS-4 (aggrecanase-1) or ADAMTS-5 (aggrecanase-2).
Connection method, characterized in that a strip is inserted with a tube into receiving openings in objects (2, 3) that are to be connected, where the strip is held fast in the inserted end, the tube is lifted up, thereafter the objects (2, 3) that are to be connected are displaced so that they completely pass the tube, the strip receives more or less a U-shape, whereafter the upper part of U-shaped strip is pressed against the lower part so that the strip is now held fast, and in this position the ends of the strip are joined.
A sensor system (100, 300, 400, 500, 1800) comprising a processing unit and an array of sensor elements, the array comprising N sensor elements, N being an integer, wherein the processing unit is configured to: identify mutually different sets of sensor elements within the array, and step sequentially through said sets, each set comprising M sensor elements, wherein M < N and M is an integer; characterised in that the processing unit is further configured to: identify mutually different subsets of sensor elements within each set and step sequentially through said subsets, each subset comprising M-1 sensor elements, the processing unit being further configured to identify and skip redundant subset steps; and concurrently sample the sensor elements within said subsets. identify mutually different sets of sensor elements within the array, and step sequentially through said sets, each set comprising M sensor elements, wherein M < N and M is an integer; characterised in that the processing unit is further configured to: identify mutually different subsets of sensor elements within each set and step sequentially through said subsets, each subset comprising M-1 sensor elements, the processing unit being further configured to identify and skip redundant subset steps; and concurrently sample the sensor elements within said subsets. identify mutually different subsets of sensor elements within each set and step sequentially through said subsets, each subset comprising M-1 sensor elements, the processing unit being further configured to identify and skip redundant subset steps; and concurrently sample the sensor elements within said subsets.
A collapsible container, containing a door part, a rear part and a central part comprising at least one collapsible module comprising a floor, a roof and two side walls (8, 9), wherein the first side wall is connected to the roof with use of a locking means whereas the second side wall in the unfolded position of the collapsible module is releasably connected to the floor with use of locking means, characterised in that the first side wall is connected with its bottom edge tiltably to the floor and additionally fixed to the roof with use of a connecting means in such a way that when the locking means (11, 11') are unlocked, the roof can be lowered by holding through the connecting means the first side wall which is tilted towards the second side wall and folded towards the floor whereas the second side wall is connected with its top edge tiltably to the roof and is supported slidably with its bottom edge on the floor, and also tilted and folded towards the floor, wherein the bottom edge of the second side wall is slid on the floor under the first side wall in such a way, that when the roof reaches its bottom dead position, the floor, the roof, the first side wall and the second side wall are in the folded arrangement, occupying maximum 25% of the height of the collapsible module before folding, and in the folded position at least one collapsible module can be placed into the rear part subsequently closed directly by the door part.
An apparatus for thermal cycling samples, the apparatus comprising: a sample retaining element comprising a first surface for receiving a sample containment structure, a second surface opposing the first surface, and a substantially flat edge surface, wherein the sample retaining element provides a thermal mass for heating and cooling during thermal cycling; and an edge heater coupled to the substantially flat edge surface of the sample retaining element. a sample retaining element comprising a first surface for receiving a sample containment structure, a second surface opposing the first surface, and a substantially flat edge surface, wherein the sample retaining element provides a thermal mass for heating and cooling during thermal cycling; and an edge heater coupled to the substantially flat edge surface of the sample retaining element.
A faster than Nyquist communication system adapted for conveying a set of symbols from a transmitter to a receiver, wherein the transmitter and the receiver are coupled by means of a transmission channel, comprising the following circuits: • a precoder adapted for generating a set of precoded symbols from a set of input symbols by performing a matrix operation with a precoding matrix, • a pulse filter adapted for generating a transmission signal to be transmitted over the transmission channel as a function of the precoded symbols, • a receiving filter adapted for generating a set of sampled symbols as a function of the transmission signal and noise added by the transmission channel, and • a decoder adapted for generating a set of decoded symbols as a function of the set of sampled symbols, by means of operation with a decoding matrix; • wherein the pulse filter is adapted to perform the following operation onto a number of N input symbols a n: s t = ∑ a n ⋅ ρ g T t − nρT wherein gT is a pulse form of the pulse filter, T is an intermediate time for orthogonal pulse transmission with respect to the pulse form gT, and the acceleration factor p is a value between 0 and 1, characterized in that • the matrix of the precoder and the matrix of the decoder are both an inverse square root matrix G -1/2 of a matrix G, the matrix elements of the matrix G being calculated as: G m, n = ∫ − ∞ ∞ ρ g T t − nρT ⋅ ρ g T t − mρT dt with 1 < n ≤ N and 1 < m ≤ N and N being an integer value > 1. • a precoder adapted for generating a set of precoded symbols from a set of input symbols by performing a matrix operation with a precoding matrix, • a pulse filter adapted for generating a transmission signal to be transmitted over the transmission channel as a function of the precoded symbols, • a receiving filter adapted for generating a set of sampled symbols as a function of the transmission signal and noise added by the transmission channel, and • a decoder adapted for generating a set of decoded symbols as a function of the set of sampled symbols, by means of operation with a decoding matrix; • wherein the pulse filter is adapted to perform the following operation onto a number of N input symbols a n: s t = ∑ a n ⋅ ρ g T t − nρT wherein gT is a pulse form of the pulse filter, T is an intermediate time for orthogonal pulse transmission with respect to the pulse form gT, and the acceleration factor p is a value between 0 and 1, characterized in that • the matrix of the precoder and the matrix of the decoder are both an inverse square root matrix G -1/2 of a matrix G, the matrix elements of the matrix G being calculated as: G m, n = ∫ − ∞ ∞ ρ g T t − nρT ⋅ ρ g T t − mρT dt with 1 < n ≤ N and 1 < m ≤ N and N being an integer value > 1.
An integrated metal processing facility for forming and heat treating metal castings, comprising: - a pouring station for pouring a molten metal into a series of molds to form the castings; - a heat treatment unit including at least one heat treatment station for heat treating the castings; and - a transfer system for moving the castings from said pouring station to said heat treatment unit, characterized by - a heat source positioned along a path of travel for the castings and along which the castings pass for applying heat to the castings during the transfer of the castings from the pouring station to the heat treatment unit for feeding into the heat treatment station and prior to introduction of the castings into said heat treatment station to arrest the cooling of the castings and maintain the castings at or above a process control temperature and below a solution heat treat temperature required for the metal of the castings; wherein the metal is an aluminum/copper alloy and the process control temperature is from 400°C to 470°C; or wherein the metal is an iron alloy and the process control temperature is from 1000°C to 1300°C. - whereby as the castings are moved from said pouring station to said heat treatment unit, the molten metal of the castings is permitted to solidify while the castings are maintained at or above their process control temperature and below said solution heat treat temperature until the castings are introduced into said heat treatment station. - a pouring station for pouring a molten metal into a series of molds to form the castings; - a heat treatment unit including at least one heat treatment station for heat treating the castings; and - a transfer system for moving the castings from said pouring station to said heat treatment unit, - a heat source positioned along a path of travel for the castings and along which the castings pass for applying heat to the castings during the transfer of the castings from the pouring station to the heat treatment unit for feeding into the heat treatment station and prior to introduction of the castings into said heat treatment station to arrest the cooling of the castings and maintain the castings at or above a process control temperature and below a solution heat treat temperature required for the metal of the castings; wherein the metal is an aluminum/copper alloy and the process control temperature is from 400°C to 470°C; or wherein the metal is an iron alloy and the process control temperature is from 1000°C to 1300°C. - whereby as the castings are moved from said pouring station to said heat treatment unit, the molten metal of the castings is permitted to solidify while the castings are maintained at or above their process control temperature and below said solution heat treat temperature until the castings are introduced into said heat treatment station.
A rigid packet of smoking articles comprising: a parallelepiped-shaped container having a front wall, a rear wall, a top wall, a bottom wall and two lateral walls, and is provided with an extraction opening formed partly through the top wall and partly through the front wall; an inner package containing a group of smoking articles and housed inside the container; and a parallelepiped-shaped lid which is hinged to the container along a hinge arranged parallel to a longitudinal edge defined between the rear wall and a lateral wall of the container, and has a front wall resting on the front wall of the container; a top wall resting on the top wall of the container; a bottom wall resting on the bottom wall of the container, and two lateral walls resting on the lateral walls of the container; the packet of smoking articles being characterized in that: the inner package is transversely smaller than the container; a parallelepiped-shaped filler is inserted inside the container alongside the inner package; and at the top wall of the container the extraction opening is shaped so that the top wall of the container completely covers the filler. a parallelepiped-shaped container having a front wall, a rear wall, a top wall, a bottom wall and two lateral walls, and is provided with an extraction opening formed partly through the top wall and partly through the front wall; an inner package containing a group of smoking articles and housed inside the container; and a parallelepiped-shaped lid which is hinged to the container along a hinge arranged parallel to a longitudinal edge defined between the rear wall and a lateral wall of the container, and has a front wall resting on the front wall of the container; a top wall resting on the top wall of the container; a bottom wall resting on the bottom wall of the container, and two lateral walls resting on the lateral walls of the container; the packet of smoking articles being characterized in that: the inner package is transversely smaller than the container; a parallelepiped-shaped filler is inserted inside the container alongside the inner package; and at the top wall of the container the extraction opening is shaped so that the top wall of the container completely covers the filler. the inner package is transversely smaller than the container; a parallelepiped-shaped filler is inserted inside the container alongside the inner package; and at the top wall of the container the extraction opening is shaped so that the top wall of the container completely covers the filler.