mhurhangee/patent-ind-claim-en huggingface dataset:
An enclosure of a steel-making furnace system , comprising: a support structure comprising a frame that defines an interior; a supply line (A) for supplying a cooling liquid from a reservoir; a return line (E) fluidly coupled to the supply line (A) and the reservoir; a supply header and a return header each formed or positioned in the support structure; at least one panel comprising sinuously winding piping and a shaft having an inlet and an outlet, the inlet being fluidly coupled to the supply line (A) and the outlet being fluidly coupled to the return line (E); and a plug located within the shaft between the inlet and the outlet, the plug configured to direct a flow of the cooling liquid through the sinuously winding piping; wherein, the supply header is fluidly coupled to the supply line (A) and the return header is fluidly coupled to the return line (E). a support structure comprising a frame that defines an interior; a supply line (A) for supplying a cooling liquid from a reservoir; a return line (E) fluidly coupled to the supply line (A) and the reservoir; a supply header and a return header each formed or positioned in the support structure; at least one panel comprising sinuously winding piping and a shaft having an inlet and an outlet, the inlet being fluidly coupled to the supply line (A) and the outlet being fluidly coupled to the return line (E); and a plug located within the shaft between the inlet and the outlet, the plug configured to direct a flow of the cooling liquid through the sinuously winding piping; wherein, the supply header is fluidly coupled to the supply line (A) and the return header is fluidly coupled to the return line (E).
An apparatus for cooking food products, said apparatus comprising a firebox with an axially symmetrical form, the firebox having a box wall and a box edge , which defines the box wall, and being intended to accommodate a combustion material which, during combustion, outputs the thermal energy required for cooking, and having a continuous heating surface which runs substantially at a right angle to the axis (A) of the firebox , surrounds an opening arranged about the axis and is intended for the direct cooking of the food products, the heating surface having the form of an annular surface, wherein between the box wall and the heating surface there is arranged a false floor which is intended to support the combustion material, characterised in that the false floor and the box wall have an outlet opening (24 or 22) each for removing the residue of the combustion material from the apparatus, and in that the firebox has the form of a hollow truncated cone.
A method for processing device triggering information, comprising: sending, by an Internet of things service platform, to an underlying network a first device triggering message for triggering a device registered on the Internet of things service platform, and storing, by the Internet of things service platform, a first identifier corresponding to the first device triggering message (S302); and sending, by the Internet of things service platform, a second device triggering message to the underlying network, wherein the second device triggering message contains the first identifier, and the second device triggering message is used for indicating the underlying network to cancel or update the first device triggering message according to the first identifier (S304), wherein in a case that the second device triggering message sent to the underlying network by the Internet of things service platform is used for cancelling the first device triggering message, the Internet of things service platform deletes the first identifier or deletes both the first identifier and a second identifier corresponding to the second device triggering message after receiving a cancelation success response from the underlying network. sending, by an Internet of things service platform, to an underlying network a first device triggering message for triggering a device registered on the Internet of things service platform, and storing, by the Internet of things service platform, a first identifier corresponding to the first device triggering message (S302); and sending, by the Internet of things service platform, a second device triggering message to the underlying network, wherein the second device triggering message contains the first identifier, and the second device triggering message is used for indicating the underlying network to cancel or update the first device triggering message according to the first identifier (S304), wherein in a case that the second device triggering message sent to the underlying network by the Internet of things service platform is used for cancelling the first device triggering message, the Internet of things service platform deletes the first identifier or deletes both the first identifier and a second identifier corresponding to the second device triggering message after receiving a cancelation success response from the underlying network.
A frequency selective limiter, FSL, comprising: a first magnetic material having first and second opposing surfaces; and a first conductor disposed on the first surface of the first magnetic material , a width of the first conductor decreasing from a first end of the FSL to a second end of the FSL along a length of the FSL ; two second conductors disposed on the second surface of the first magnetic material , a width of a first gap (500G 1 ) between the two second conductors decreasing from the first end of the FSL to the second end of the FSL along a length of the FSL ; a second magnetic material disposed onto the first conductor such that the first conductor is disposed between the first magnetic material and the second magnetic material ; and two ground conductors on the surface of the second magnetic material , a width of a second gap (500G 2 ) between the two second ground conductors decreasing from the first end of the FSL to the second end of the FSL along a length of the FSL . a first magnetic material having first and second opposing surfaces; and a first conductor disposed on the first surface of the first magnetic material , a width of the first conductor decreasing from a first end of the FSL to a second end of the FSL along a length of the FSL ; two second conductors disposed on the second surface of the first magnetic material , a width of a first gap (500G 1 ) between the two second conductors decreasing from the first end of the FSL to the second end of the FSL along a length of the FSL ; a second magnetic material disposed onto the first conductor such that the first conductor is disposed between the first magnetic material and the second magnetic material ; and two ground conductors on the surface of the second magnetic material , a width of a second gap (500G 2 ) between the two second ground conductors decreasing from the first end of the FSL to the second end of the FSL along a length of the FSL .
Component of an exhaust-gas system of an internal combustion engine , wherein the component has at least one housing with an inlet and an outlet for an exhaust gas , wherein, in the housing , an annular heat exchanger , through which exhaust gas can flow starting from the inlet along an axial direction and along a first flow path , and, downstream of the heat exchanger , an annular catalyst body , which is arranged inside the heat exchanger in a radial direction and through which exhaust gas can flow at least along the radial direction , are arranged such that, downstream of the catalyst body , the exhaust gas flows through the heat exchanger along the radial direction and along a second flow path , characterized in that a feed device for a reduction medium is arranged upstream of the first flow path or in a deflection zone .
A method for configuring a second wireless device to access a wireless network for a first time using a first wireless device, wherein the wireless network comprises an access point, the method is performed by the second wireless device comprising: generating a first message of a one-round key exchange protocol; embedding the first message into a beacon packet and broadcasting the beacon packet ; receiving in response to the broadcast beacon packet a message from the first wireless device, wherein the message comprises encrypted configuration data of the wireless network and a second message of the one-round key exchange protocol; computing a shared key K S using the first message and the second message; decrypting the encrypted configuration data using the shared key Ks; accessing the wireless network using the configuration data, wherein the accessing comprises connecting to the access point in the wireless network; and wherein the one-round key exchange protocol comprises a Two-Basis Password Exponential Key Exchange, TBPEKE, protocol, wherein the first message comprises a first token computed using a shared token Gs and a random value x, the second message comprises a second token computed using the shared token Gs and a random value y, and the shared key Ks is computed using the shared token Gs and the random values x and y, and whereby the shared token G S is derived using two fixed Elliptic Curve Cryptography, ECC, points U, V and a random value w that were pre-loaded in the first and second wireless devices. generating a first message of a one-round key exchange protocol; embedding the first message into a beacon packet and broadcasting the beacon packet ; receiving in response to the broadcast beacon packet a message from the first wireless device, wherein the message comprises encrypted configuration data of the wireless network and a second message of the one-round key exchange protocol; computing a shared key K S using the first message and the second message; decrypting the encrypted configuration data using the shared key Ks; accessing the wireless network using the configuration data, wherein the accessing comprises connecting to the access point in the wireless network; and wherein the one-round key exchange protocol comprises a Two-Basis Password Exponential Key Exchange, TBPEKE, protocol, wherein the first message comprises a first token computed using a shared token Gs and a random value x, the second message comprises a second token computed using the shared token Gs and a random value y, and the shared key Ks is computed using the shared token Gs and the random values x and y, and whereby the shared token G S is derived using two fixed Elliptic Curve Cryptography, ECC, points U, V and a random value w that were pre-loaded in the first and second wireless devices.
A method of preparing a hard coating film, comprising the steps of: applying a first hard coating composition onto one side of a supporting substrate, the first hard coating composition including a first binder, first inorganic particles and a first photoinitiator; performing a first photocuring by irradiating one side of the supporting substrate which the first coating composition applied on with ultraviolet having a first wavelength until a part of the first binder is crosslinked; applying a second hard coating composition onto the other side of the supporting substrate, the second hard coating composition including a second binder, second inorganic particles and a second photoinitiator; and performing a second photocuring by irradiating the other side of the supporting substrate which the second coating composition applied on, with ultraviolet having a first wavelength and a second wavelength longer than the first wavelength, wherein the first and second binders are the same or different from one another and independently include a tri- to hexa-functional acrylate-based monomer. applying a first hard coating composition onto one side of a supporting substrate, the first hard coating composition including a first binder, first inorganic particles and a first photoinitiator; performing a first photocuring by irradiating one side of the supporting substrate which the first coating composition applied on with ultraviolet having a first wavelength until a part of the first binder is crosslinked; applying a second hard coating composition onto the other side of the supporting substrate, the second hard coating composition including a second binder, second inorganic particles and a second photoinitiator; and performing a second photocuring by irradiating the other side of the supporting substrate which the second coating composition applied on, with ultraviolet having a first wavelength and a second wavelength longer than the first wavelength, wherein the first and second binders are the same or different from one another and independently include a tri- to hexa-functional acrylate-based monomer.
Threaded disc as an abutment disc for a biasing element, preferably a spring, in a valve, preferably a load-holding valve or shock valve, wherein the threaded disc has an external thread (G) which is formed in the circumferential surface (M) of the threaded disc and a plurality of threads, wherein the threaded disc has a central passage opening , which passes centrally through the threaded disc along a passage direction and is coaxial with an axis of symmetry of the threaded disc perpendicular to an end face (S1) of the threaded disc , at least one further passage opening which passes completely through the threaded disc along the passage direction, and a further opening in addition to the at least one passage opening and the central passage opening , and wherein the threaded disc comprises an adjustment lock with an expanding element for expanding the threaded disc , characterised in that the adjustment lock further comprises a groove formed in the circumferential surface (M) along the passage direction, which is oriented transversely to the external thread (G) and is in contact with the opening which completely passes through the threaded disc along the passage direction, wherein the expanding element is arranged in the opening and generates a specific expansion of the threaded disc perpendicular to the passage direction as a function of its penetration depth in the opening .
An auto-injector having a first sub-assembly , the first sub-assembly comprising: a housing ; a chamber disposed within the housing and having proximal and distal ends, an inner surface and an exit aperture ; a stopper movably disposed within the chamber and having an outer surface substantially in contact with the inner surface about its perimeter; and a port movable in relation to the housing and coupled to the chamber such that movement of the port causes a corresponding movement of the chamber and the exit aperture , relative to the housing , the port adapted to receive a container containing a fluid; and wherein when the port and the chamber are moved in relation to the housing , the stopper remains stationary with respect to the housing such that movement of the port causes movement of the exit aperture in relation to the stopper ; and further comprising: a biasing element coupled to the port and configured to bias the port such that the exit aperture is biased away from the stopper . a housing ; a chamber disposed within the housing and having proximal and distal ends, an inner surface and an exit aperture ; a stopper movably disposed within the chamber and having an outer surface substantially in contact with the inner surface about its perimeter; and a port movable in relation to the housing and coupled to the chamber such that movement of the port causes a corresponding movement of the chamber and the exit aperture , relative to the housing , the port adapted to receive a container containing a fluid; and wherein when the port and the chamber are moved in relation to the housing , the stopper remains stationary with respect to the housing such that movement of the port causes movement of the exit aperture in relation to the stopper ; and further comprising: a biasing element coupled to the port and configured to bias the port such that the exit aperture is biased away from the stopper .
An in vitro or ex vivo method for inhibiting expression of DUX4, TRIM43 and ZSCAN4 in a cell, the method comprising: delivering into a cell (i) a recombinant adeno-associated virus (rAAV) vector comprising a nucleic acid encoding a catalytically active Cas9 protein, and (ii) a guide RNA (gRNA) that specifically hybridizes to a target nucleic acid sequence encoding a D4Z4 macrosatellite repeat region, in an amount sufficient to inhibit expression of DUX4 gene in the cell, wherein the gRNA comprises a sequence encoded by the sequence set forth in any one of SEQ ID NOs: 9-11.
A management device that is configured to manage a predetermined work to be performed by an operator using a predetermined work unit for multiple board processing machines which perform a predetermined process on a circuit board, comprising: a work information acquisition means configured to acquire at least a work target from the multiple board processing machines and a work timing by which time the predetermined work is required for the work target, as work information, the work information acquisition means being configured to acquire multiple pieces of the work information; a position acquisition means configured to acquire a current position of the work unit; a work sequence determination means configured to determine a work sequence for multiple work targets based on the current position of the work unit acquired by the position acquisition means, within a range where the predetermined work can be performed before elapse of the work timings respectively corresponding to the multiple work targets relating to the multiple acquired pieces of the work information; and a work instruction means comprising a display or a portable information terminal and being configured to instruct the operator to perform the predetermined work based on the determined work sequence by notifying the operator on the display or the portable information terminal. a work information acquisition means configured to acquire at least a work target from the multiple board processing machines and a work timing by which time the predetermined work is required for the work target, as work information, the work information acquisition means being configured to acquire multiple pieces of the work information; a position acquisition means configured to acquire a current position of the work unit; a work sequence determination means configured to determine a work sequence for multiple work targets based on the current position of the work unit acquired by the position acquisition means, within a range where the predetermined work can be performed before elapse of the work timings respectively corresponding to the multiple work targets relating to the multiple acquired pieces of the work information; and a work instruction means comprising a display or a portable information terminal and being configured to instruct the operator to perform the predetermined work based on the determined work sequence by notifying the operator on the display or the portable information terminal.
A method for communicating data from a flame detector , the method comprising: detecting, by the flame detector , ambient characteristics in a field of view of the flame detector to detect a fire event, wherein the ambient characteristics include an amount of electromagnetic radiation, in the field of view of the flame detector ; communicating, by the flame detector , event data, captured by the flame detector elating to the detected fire event, to a wireless device in a proximity to the flame detector , wherein the event data comprise fire pic data and optionally audio data; forwarding, by the wireless device , the event data to a cloud database ; accessing, by a central server , the event data via the cloud database ; simulating, by the central server , the detected fire event based on the event data, accessed from the cloud database , using a fire replay technique, to identify an error associated with the flame detector ; generating instructions for correcting the identified error; and communicating the generated instructions to the flame detector for remote diagnosis of the flame detector . detecting, by the flame detector , ambient characteristics in a field of view of the flame detector to detect a fire event, wherein the ambient characteristics include an amount of electromagnetic radiation, in the field of view of the flame detector ; communicating, by the flame detector , event data, captured by the flame detector elating to the detected fire event, to a wireless device in a proximity to the flame detector , wherein the event data comprise fire pic data and optionally audio data; forwarding, by the wireless device , the event data to a cloud database ; accessing, by a central server , the event data via the cloud database ; simulating, by the central server , the detected fire event based on the event data, accessed from the cloud database , using a fire replay technique, to identify an error associated with the flame detector ; generating instructions for correcting the identified error; and communicating the generated instructions to the flame detector for remote diagnosis of the flame detector .
A two-part device, wherein a first part is a multicomponent TCR ORF reconstitution and engineering system (TORES) , and a second part is a multicomponent engineered TCR-presenting cell system (eTPCS) , wherein the TORES comprises two separate components, wherein the first component 1A is a vector carrying variable and constant (V-C) T-cell receptor (TCR) gene segments, and the second component 1B is a vector carrying joining (J) TCR gene segments, and wherein operation of a TORES provides one or more genetic integration vectors, components 2C and/or 2E, each encoding an analyte TCR ORF selected from a. a native TCR chain b. a sequence-diversified TCR chain c. a synthetic TCR chain and wherein the eTPCS comprises a first component eTPC , designated component 2A , wherein component 2A a. Lacks endogenous expression of TCR chains alpha, beta, delta and gamma, and b. Expresses CD3 proteins which are conditionally presented on the surface of the cell only when the cell expresses a complementary pair of TCR chains and c. Contains further components designated 2B and 2D , genomic receiver sites, each for integration of a single ORF encoding one analyte TCR chain of alpha, beta, delta or gamma, and wherein the genomic receiver sites 2B and 2D are each selected from a. A synthetic construct designed for recombinase mediated cassette exchange (RMCE) b. A synthetic construct designed for site directed homologous recombination; and wherein component 2C and 2E , are matched to component 2 B and 2D , respectively , and wherein the component 2 C and 2E are designed to deliver a single ORF encoding one analyte TCR chain of alpha, beta, delta and/or gamma, and wherein 2C and/or 2E optionally encodes a selection marker of integration, such that the analyte TCR chains can be expressed as TCR surface protein in complex with the CD3 ( TCRsp ) on component 2 A . a. a native TCR chain b. a sequence-diversified TCR chain c. a synthetic TCR chain a. Lacks endogenous expression of TCR chains alpha, beta, delta and gamma, and b. Expresses CD3 proteins which are conditionally presented on the surface of the cell only when the cell expresses a complementary pair of TCR chains and c. Contains further components designated 2B and 2D , genomic receiver sites, each for integration of a single ORF encoding one analyte TCR chain of alpha, beta, delta or gamma, a. A synthetic construct designed for recombinase mediated cassette exchange (RMCE) b. A synthetic construct designed for site directed homologous recombination;