mhurhangee/patent-ind-claim-en huggingface dataset:
Method for prediction of response to cardiovascular regeneration, wherein the method comprises (i) determining in a sample of a subject an amount of SH2B3-gene and/or -gene expression product as a biomarker, wherein the SH2B3-gene and/or -gene expression product comprises a mutational variant, wherein the SH2B3-gene and/or -gene expression variant comprises at least one mutation of SH2B3-gene and/or -gene expression Variant 1 and/or SH2B3-gene and/or -gene expression Variant 2, wherein the SH2B3-gene and/or -gene expression variant comprises a sequence according to SEQ ID NO: 1 and/or SEQ ID NO: 2, (ii) comparing the determined amount of SH2B3-gene and/or -gene expression mutational variant product to an amount of a baseline value and/or a reference of SH2B3 non-disease type or individual reference cell without somatic mutation gene and/or -gene expression, (iii) predicting, based on the results of the comparison whether a response to disease therapy, in particular to tissue repair, preferably to cardiac repair, in the subject is to be expected, not expected or is ambivalent. (i) determining in a sample of a subject an amount of SH2B3-gene and/or -gene expression product as a biomarker, wherein the SH2B3-gene and/or -gene expression product comprises a mutational variant, wherein the SH2B3-gene and/or -gene expression variant comprises at least one mutation of SH2B3-gene and/or -gene expression Variant 1 and/or SH2B3-gene and/or -gene expression Variant 2, wherein the SH2B3-gene and/or -gene expression variant comprises a sequence according to SEQ ID NO: 1 and/or SEQ ID NO: 2, wherein the SH2B3-gene and/or -gene expression variant comprises at least one mutation of SH2B3-gene and/or -gene expression Variant 1 and/or SH2B3-gene and/or -gene expression Variant 2, wherein the SH2B3-gene and/or -gene expression variant comprises a sequence according to SEQ ID NO: 1 and/or SEQ ID NO: 2, (ii) comparing the determined amount of SH2B3-gene and/or -gene expression mutational variant product to an amount of a baseline value and/or a reference of SH2B3 non-disease type or individual reference cell without somatic mutation gene and/or -gene expression, (iii) predicting, based on the results of the comparison whether a response to disease therapy, in particular to tissue repair, preferably to cardiac repair, in the subject is to be expected, not expected or is ambivalent.
A slide rail mechanism , comprising: a rail member ; a first supporting frame movable relative to the rail member ; a second supporting frame movable relative to the first supporting frame ; a first bracket configured to mount the slide rail mechanism to a post , the first bracket and the second supporting frame being movable relative to each other; and a reinforcing member connected to the first supporting frame , the reinforcing member comprising a holding part configured to support the rail member ; wherein the rail member comprises a first engaging structure , the reinforcing member comprises a second engaging structure , the reinforcing member is configured to be engaged with the first engaging structure through the second engaging structure ; characterized by : wherein the first supporting frame has an opening and at least one contact wall adjacent to the opening , the second supporting frame comprises an abutting part configured to pass through the opening , the abutting part is smaller than the opening . a rail member ; a first supporting frame movable relative to the rail member ; a second supporting frame movable relative to the first supporting frame ; a first bracket configured to mount the slide rail mechanism to a post , the first bracket and the second supporting frame being movable relative to each other; and a reinforcing member connected to the first supporting frame , the reinforcing member comprising a holding part configured to support the rail member ; wherein the rail member comprises a first engaging structure , the reinforcing member comprises a second engaging structure , the reinforcing member is configured to be engaged with the first engaging structure through the second engaging structure ; characterized by : wherein the first supporting frame has an opening and at least one contact wall adjacent to the opening , the second supporting frame comprises an abutting part configured to pass through the opening , the abutting part is smaller than the opening .
An arrangement for the attachment of a wear lining element onto a surface that is exposed to wear, a supporting surface of a supporting construction , comprising a wear lining element , attachment means that when anchored in the wear lining element are each one intended to be inserted into attachment holes arranged in the supporting construction whereby the wear lining element is fastened against the supporting surface by means of supplementary fastening means that are associated with the attachment means and positioned to interact with a tensioning surface located on the an opposite side of the supporting surface, characterised in that the attachment means comprises a holder fixedly attached to the wear lining element , a guide designed to guide the wear lining element into place against the supporting surface through interaction with a hole wall in the attachment holes of the supporting construction, a mounting designed to hold the wear lining element fastened against the supporting surface through interaction with the tensioning surface of the supporting construction, and fixing and locking means that allow the guide and the mounting, respectively, to be held in place in a manner that allows exchange, supported by the holder.
An apparatus for establishing a connection to a packet data network, comprising: a first determining unit , configured to: when it is detected that a position of user equipment changes, determine whether an area served by an anchor gateway through which the user equipment connects to a packet data network is consistent with an area served by a data forwarding gateway; a sending unit , configured to: in response to determining by the first determining unit , that an area served by an anchor gateway through which the user equipment connects to a packet data network is not consistent with an area served by a data forwarding gateway, determine that the user equipment currently has a voice service and send, to the user equipment when a result of the determining is no, a voice packet data network (PDN) connection release request that carries a reconnection indication; a receiving unit , configured to receive a reconnection request of the voice PDN connection sent by the user equipment; a selection unit , configured to select an anchor gateway that serves an area consistent with the area served by the data forwarding gateway; and a connection unit , configured to connect the user equipment to the packet data network by using the selected anchor gateway. a first determining unit , configured to: when it is detected that a position of user equipment changes, determine whether an area served by an anchor gateway through which the user equipment connects to a packet data network is consistent with an area served by a data forwarding gateway; a sending unit , configured to: in response to determining by the first determining unit , that an area served by an anchor gateway through which the user equipment connects to a packet data network is not consistent with an area served by a data forwarding gateway, determine that the user equipment currently has a voice service and send, to the user equipment when a result of the determining is no, a voice packet data network (PDN) connection release request that carries a reconnection indication; a receiving unit , configured to receive a reconnection request of the voice PDN connection sent by the user equipment; a selection unit , configured to select an anchor gateway that serves an area consistent with the area served by the data forwarding gateway; and a connection unit , configured to connect the user equipment to the packet data network by using the selected anchor gateway.
A Subscriber Identity Module (SIM) card seat assembly, adapted for positioning on a motherboard and used for receiving a SIM card, comprising a housing , a signal conducting terminal , a card holder and an eject mechanism , wherein the signal conducting terminal is adapted to be disposed on the motherboard for conducting with the SIM card, and wherein the SIM card assembly is adapted so that a receiving space is formed between an area of the motherboard where the signal conducting terminal is located and the housing , the receiving space being adapted for receiving the card holder and the eject mechanism , the card holder being adapted for receiving a SIM card and matching different types of SIM cards, the eject mechanism being adapted for popping the card holder out of the SIM card seat from the receiving space, wherein the eject mechanism comprises a first rod , and a second rod ; whereby in a normal state, the first rod and second rod are positioned perpendicularly to each other in the receiving space with the end of the first rod at the side of the head of the second rod, and parallel to two adjacent sides of the card holder respectively, and wherein a notch is provided on a side of the card holder, and the position of the notch corresponds to the position of the second rod; whereby in a work state, a force is acted on the first rod, such that the first rod moves in the action force direction and drives the second rod to move in a lever manner, wherein a tail end of the second rod acts as a force bearing point acting on the inner side edge of the card holder to urge the card holder move outwardly relative to the receiving space, the inner side edge being a side edge of the card holder relative to an inner part of the receiving space; and whereby the eject mechanism further comprises a push pin adapted to be pushed against the head end of the first rod to provide the force acting on the first rod in the work state, wherein the push pin is passed through and guided by a hole in the body of the card holder .
An automatic belay (autobelay) or self retracting lifeline (SRL) mechanism, the mechanism comprising: at least one primary system (1, 22-23, 30-31, 40-41, 50) that is configured to undergo motion according to a dependent movement kinematic relationship when a change is imposed on the primary system, the at least one primary system comprising a carriage or rotor and at least one further member linked to the carriage or rotor, the at least one further member being selected from: a pawl, rocker, cam system, latch, disk, carrier, carriage, spool, and combinations thereof; the primary system further having: at least one sensor in a dependent movement kinematic relationship with the at least one primary system that measures at least two motion characteristics of the at least one primary system according to the kinematic relationship; or at least two sensors in a dependent movement kinematic relationship with the at least one primary system, the sensors each measuring at least one motion characteristic of the at least one primary system according to the kinematic relationship; the sensor or sensors being selected from: at least one mechanical sensor, at least one fluidic sensor, at least one thermal sensor, at least one magnetic sensor, at least one electrical sensor, at least one electronic sensor, and combinations thereof; and at least one secondary system , the secondary system being a mechanical mechanism that the primary system or a part thereof engages, characterized in that activation occurs between the at least one primary system and at least one secondary system when at least one sensed motion characteristic achieves a threshold, the threshold being determined based on the measure of at least one other motion characteristic. at least one sensor in a dependent movement kinematic relationship with the at least one primary system that measures at least two motion characteristics of the at least one primary system according to the kinematic relationship; or at least two sensors in a dependent movement kinematic relationship with the at least one primary system, the sensors each measuring at least one motion characteristic of the at least one primary system according to the kinematic relationship; the sensor or sensors being selected from: at least one mechanical sensor, at least one fluidic sensor, at least one thermal sensor, at least one magnetic sensor, at least one electrical sensor, at least one electronic sensor, and combinations thereof; and at least one secondary system , the secondary system being a mechanical mechanism that the primary system or a part thereof engages, characterized in that activation occurs between the at least one primary system and at least one secondary system when at least one sensed motion characteristic achieves a threshold, the threshold being determined based on the measure of at least one other motion characteristic.
Method for performing wake-up signalling between a host device and a client device of a communication system, said host and said client device being in a two-wire connection to exchange power and high-speed data communication with each other and at least one of said host and said client device being in an idle state, said host and said client device each comprising a data controller arranged for high-speed data communication control and a power state controller arranged to switch the device between at least an active state and said idle state, whereby said data controller of said at least one of said host and said client device is disabled during said idle state wherein the high-speed data communication between the devices is deactivated, the method characterised by comprising the steps of: - generating in the power state controller of said host or client device respectively a voltage or current pulse for a wake-up signal and transmitting said wake-up signal via said two-wire connection to the other device, said other device being in said idle state, - detecting said voltage or current pulse from a wake-up signal with the power state controller of said other device and, upon said detecting, setting a control signal to transition said other device out of said idle state. - generating in the power state controller of said host or client device respectively a voltage or current pulse for a wake-up signal and transmitting said wake-up signal via said two-wire connection to the other device, said other device being in said idle state, - detecting said voltage or current pulse from a wake-up signal with the power state controller of said other device and, upon said detecting, setting a control signal to transition said other device out of said idle state.
A method of producing a bonded mineral fiber product which comprises the steps of contacting the mineral fibers with a solid state binder composition, wherein the binder comprises a component (i) in form of one or more compounds selected from compounds of the formula, and any salts thereof, such as ammonium salts and/or amine salts thereof: in which R1 corresponds to H, alkyl, monohydroxyalkyl, dihydroxyalkyl, polyhydroxyalkyl, alkylene, alkoxy, amine; compounds of the formula, and any salts thereof, such as ammonium salts and/or amine salts thereof: in which R2 corresponds to H, alkyl, monohydroxyalkyl, dihydroxyalkyl, polyhydroxyalkyl, alkylene, alkoxy, amine; a component (ii) in the form of one or more carbohydrates.
A method for preparing a hyaluronic acid (HA) dermal filler comprising the steps of: (a) providing a crosslinked hyaluronic acid (HA)-based composition in the form of a gel, the HA being crosslinked with an epoxide crosslinking agent, and (b) dialyzing the crosslinked HA-based gel, wherein the dialysis is carried out at a temperature of at least 35°C. (a) providing a crosslinked hyaluronic acid (HA)-based composition in the form of a gel, the HA being crosslinked with an epoxide crosslinking agent, and (b) dialyzing the crosslinked HA-based gel, wherein the dialysis is carried out at a temperature of at least 35°C.
A method of manufacturing vacuum insulating glass (VIG) units, comprising the steps of: providing a plurality of glass panes (2a-2n); obtaining individual topographic representations (TOPREP_2a - TOPREP_2n) of different support areas (SPARn) of each glass pane of the plurality of glass panes based on input from a measuring arrangement ; estimating surface distance characteristics (SDC1-SDCn) between different combinations of the plurality of glass panes (2a-2n) based on the topographic representations (TOPREP_2a - TOPREP_2n); storing one or more of the surface distance characteristics (SDC1-SDCn); selecting a first glass pane and a second glass pane of the plurality of glass panes based on the surface distance characteristics; identifying a first pillar type of support pillars to be placed at predefined support areas (SPAR 1-SPARn) within a gap between the first glass pane and the second glass pane; and selecting one or more manufacturing layouts (MAL1-MALn) based on the stored surface distance characteristic. providing a plurality of glass panes (2a-2n); obtaining individual topographic representations (TOPREP_2a - TOPREP_2n) of different support areas (SPARn) of each glass pane of the plurality of glass panes based on input from a measuring arrangement ; estimating surface distance characteristics (SDC1-SDCn) between different combinations of the plurality of glass panes (2a-2n) based on the topographic representations (TOPREP_2a - TOPREP_2n); storing one or more of the surface distance characteristics (SDC1-SDCn); selecting a first glass pane and a second glass pane of the plurality of glass panes based on the surface distance characteristics; identifying a first pillar type of support pillars to be placed at predefined support areas (SPAR 1-SPARn) within a gap between the first glass pane and the second glass pane; and selecting one or more manufacturing layouts (MAL1-MALn) based on the stored surface distance characteristic.
Method for operating a heat pump in at least one heating mode, wherein heat is transferred between a first refrigerant and a heat transfer fluid , wherein the first refrigerant is circulated by a compressor in a first refrigerant circuit , a first mass flow of the first refrigerant through the first refrigerant circuit is controlled by adjusting a speed on the compressor with an inverter , including the method step that inverter heat , generated by electrical losses in the inverter , is transferred to the heat transfer fluid , wherein the inverter heat in a second refrigerant circuit is transferred to a second refrigerant for cooling the inverter and the second refrigerant delivers the inverter heat to the heat transfer fluid , wherein an amount of the inverter heat , which is transferred from the inverter to the second refrigerant , is matched to a minimum temperature of the inverter , a second mass flow of the second refrigerant is reduced to the extent that the temperature does not fall below the minimum temperature and the amount of the inverter heat is matched such that the inverter does not reach or exceed a maximum temperature, for which purpose the mass flow is increased to the extent that the maximum temperature is not exceeded, characterised in that the amount of the inverter heat is dependent on an operating status at the inverter , wherein a second mass flow of the second refrigerant is controlled via an opening degree of a valve in the second refrigerant circuit as a function of the operating state. including the method step that inverter heat , generated by electrical losses in the inverter , is transferred to the heat transfer fluid , wherein the inverter heat in a second refrigerant circuit is transferred to a second refrigerant for cooling the inverter and the second refrigerant delivers the inverter heat to the heat transfer fluid , wherein an amount of the inverter heat , which is transferred from the inverter to the second refrigerant , is matched to a minimum temperature of the inverter , a second mass flow of the second refrigerant is reduced to the extent that the temperature does not fall below the minimum temperature and the amount of the inverter heat is matched such that the inverter does not reach or exceed a maximum temperature, for which purpose the mass flow is increased to the extent that the maximum temperature is not exceeded, characterised in that the amount of the inverter heat is dependent on an operating status at the inverter , wherein a second mass flow of the second refrigerant is controlled via an opening degree of a valve in the second refrigerant circuit as a function of the operating state.
A computer-implemented method, comprising: receiving, by a server including one or more processors and from a client device, a set of client-encrypted queries that were encrypted by the client device; characterised by identifying, by the server, a set of server-encrypted decryption keys based on the set of client-encrypted queries; transmitting, by the server, the set of server-encrypted decryption keys to the client device; receiving, by the server and from the client device, a set of client-server-encrypted decryption keys that includes the set of server-encrypted decryption keys that have been further encrypted by the client device; receiving, by the server and from the client device, a set of client-encrypted/client-derived decryption keys that (i) were derived by the client device independent of the set of server-encrypted decryption keys, and (ii) are encrypted by the client device; generating, by the server, a matching decryption key map that specifies matches between (i) the set of client-server-encrypted decryption keys and (ii) the set of client-encrypted/client-derived decryption keys; filtering, by the server, the set of client-encrypted queries using the matching decryption key map to create a set of filtered client-encrypted queries; and generating, by the server, a set of query results using the set of filtered client-encrypted queries. identifying, by the server, a set of server-encrypted decryption keys based on the set of client-encrypted queries; transmitting, by the server, the set of server-encrypted decryption keys to the client device; receiving, by the server and from the client device, a set of client-server-encrypted decryption keys that includes the set of server-encrypted decryption keys that have been further encrypted by the client device; receiving, by the server and from the client device, a set of client-encrypted/client-derived decryption keys that (i) were derived by the client device independent of the set of server-encrypted decryption keys, and (ii) are encrypted by the client device; generating, by the server, a matching decryption key map that specifies matches between (i) the set of client-server-encrypted decryption keys and (ii) the set of client-encrypted/client-derived decryption keys; filtering, by the server, the set of client-encrypted queries using the matching decryption key map to create a set of filtered client-encrypted queries; and generating, by the server, a set of query results using the set of filtered client-encrypted queries.
A method for obtaining flowable oil comprising the steps of providing a population of oil-producing microorganisms; recovering oil from the microorganisms, wherein the recovered oil is at a first temperature; reducing the first temperature of the recovered oil over a first period of time to a second temperature, wherein the second temperature is -10°C to 9°C; and applying mechanical energy to the recovered oil during the first period of time thereby producing the flowable oil, wherein the method is carried out without further purification steps and in the absence of agents that decrease oil viscosity.
A compound selected from the group consisting of: and or a pharmaceutically acceptable salt thereof.