mhurhangee/patent-ind-claim-en huggingface dataset:
A method for reversibly bonding a first and a second substrate, wherein at least the first substrate is an electrically non-conductive substrate, the method comprising: a) coating the surface of the electrically non-conductive substrate(s) with a conductive ink; b) applying an electrically debondable hot melt adhesive composition to the conductive ink-coated surface of the first substrate and/or the second substrate; c) contacting the first and the second substrates such that the electrically debondable hot melt adhesive composition is interposed between the two substrates; d) allowing formation of an adhesive bond between the two substrates to provide bonded substrates; and e) optionally applying a voltage to the bonded substrates whereby adhesion at at least one interface between the electrically debondable hot melt adhesive composition and a substrate surface is substantially weakened, characterized in that the electrically debondable hot melt adhesive composition comprises at least one NCO-terminated polyurethane polymer and at least one organic or inorganic salt. a) coating the surface of the electrically non-conductive substrate(s) with a conductive ink; b) applying an electrically debondable hot melt adhesive composition to the conductive ink-coated surface of the first substrate and/or the second substrate; c) contacting the first and the second substrates such that the electrically debondable hot melt adhesive composition is interposed between the two substrates; d) allowing formation of an adhesive bond between the two substrates to provide bonded substrates; and e) optionally applying a voltage to the bonded substrates whereby adhesion at at least one interface between the electrically debondable hot melt adhesive composition and a substrate surface is substantially weakened,
A double-stranded ribonucleic acid (dsRNA) for inhibiting expression of Serpina1, wherein said dsRNA comprises a sense strand and an antisense strand, wherein the sense strand comprises SEQ ID NO: 62 and the antisense strand comprises SEQ ID NO: 106, wherein every pyrimidine nucleotide of said dsRNA comprises a 2'-O-Methyl modification.
A wireless communication method, comprising: transmitting, by a wireless communication node, a first information element that includes a plurality of parameters, the plurality of parameters configured for a plurality of wireless communication devices to perform respective random access procedures; and transmitting, by the wireless communication node, a second information element that includes a subset of the plurality of parameters, the subset of parameters configured for a wireless communication device of the plurality of wireless communication devices to perform one of the random access procedures, wherein the plurality of parameters in the first information element is further commonly configured for each of the plurality of wireless communication devices to transmit one or more messages, that include a preamble and a payload, to the wireless communication node in the random access procedure, wherein the subset of parameters in the second information element is further dedicatedly configured for the wireless communication device to transmit the one or more messages to the wireless communication node in the random access procedure, and wherein the wireless communication node comprises a base station, and wherein each wireless communication device of the plurality of wireless communication devices comprises a user equipment. transmitting, by a wireless communication node, a first information element that includes a plurality of parameters, the plurality of parameters configured for a plurality of wireless communication devices to perform respective random access procedures; and transmitting, by the wireless communication node, a second information element that includes a subset of the plurality of parameters, the subset of parameters configured for a wireless communication device of the plurality of wireless communication devices to perform one of the random access procedures, wherein the plurality of parameters in the first information element is further commonly configured for each of the plurality of wireless communication devices to transmit one or more messages, that include a preamble and a payload, to the wireless communication node in the random access procedure, wherein the subset of parameters in the second information element is further dedicatedly configured for the wireless communication device to transmit the one or more messages to the wireless communication node in the random access procedure, and wherein the wireless communication node comprises a base station, and wherein each wireless communication device of the plurality of wireless communication devices comprises a user equipment.
Method for removing biofilms formed on the water-contacting surfaces of water-carrying pipe networks, pipelines and sections thereof and of containers through which medium flows from systems for providing and supplying drinking water and industrial water, in which method - the water is removed from the system to be cleaned or from sections of this system to be cleaned, - an air or gas flow to which one or more disinfectant, water-binding or sterilizing gases are added, if necessary, before this flow is introduced into the system to be treated, is guided past the coatings in order to largely dry them and thus make them removable, - wherein the moisture content and, if necessary, the content of added gases in the air and/or gas flow emerging from the treated system is analytically monitored, wherein the end point of the treatment is indicated as a value falling below a predetermined limit value for the relative humidity, and - the at least partially dried coatings are then rinsed out of the treated system with a rinsing liquid. - the water is removed from the system to be cleaned or from sections of this system to be cleaned, - an air or gas flow to which one or more disinfectant, water-binding or sterilizing gases are added, if necessary, before this flow is introduced into the system to be treated, is guided past the coatings in order to largely dry them and thus make them removable, - wherein the moisture content and, if necessary, the content of added gases in the air and/or gas flow emerging from the treated system is analytically monitored, wherein the end point of the treatment is indicated as a value falling below a predetermined limit value for the relative humidity, and - the at least partially dried coatings are then rinsed out of the treated system with a rinsing liquid.
A diverter system for a fluid-bearing household appliance comprising a supply path , a first discharge path , a second discharge path , and a fluid diverter with a moveable fluid distribution element , wherein the moveable fluid distribution element is moveable for selectively connecting the supply path to one of the first discharge path and the second discharge path in a flow direction, characterized in that a low pressure barrier device having an inlet side and an outlet side downstream of the inlet side in the flow direction is provided in the first discharge path , which is configured to prevent fluid flow from the inlet side to the outlet side when a pressure differential between the inlet side and the outlet side is below a cracking pressure.
A method for making an olefinic feedstock comprising: a) in a first stage, reacting conjugated alkenes comprising at least one conjugated diene and at least one additional olefinic bond with hydrogen in the presence of a first catalyst under conditions suitable to preferentially hydrogenate at least one olefinic bond in the conjugated diene to produce partially hydrogenated intermediates; and b) in a second stage, reacting the partially hydrogenated intermediates with hydrogen in the presence of a second catalyst to produce an olefinic feedstock; wherein the catalyst, catalyst loading, temperature or hydrogen pressure is varied between the first stage and the second stage so as to favor hydrogenation of partially hydrogenated intermediates having more than one olefinic bond over hydrogenation of partially hydrogenated intermediates having one olefinic bond; and wherein the olefinic feedstock comprises at least about 55% mono-olefin; wherein the first catalyst, the second catalyst, or both the first and second catalyst comprises Pd, Pd/C, or Pd/Al 2 O 3 . a) in a first stage, reacting conjugated alkenes comprising at least one conjugated diene and at least one additional olefinic bond with hydrogen in the presence of a first catalyst under conditions suitable to preferentially hydrogenate at least one olefinic bond in the conjugated diene to produce partially hydrogenated intermediates; and b) in a second stage, reacting the partially hydrogenated intermediates with hydrogen in the presence of a second catalyst to produce an olefinic feedstock;
A torsional vibration damper for a front end accessory drive comprising: a hub having a shaft-receiving member defining an axis of rotation (A) and a plate extending radially outward about the shaft-receiving member, wherein the plate has a one or more apertures therethrough and terminates with an annular outermost side ; a first portion of an inertia member defining a back face and a bore therethrough and having an annular flange that defines a belt-engaging surface concentric about the axis of rotation, wherein the shaft-receiving member of the hub is positioned in the bore and the hub has a smaller outer diameter compared to the inner diameter of the annular flange to define an inner cavity having a first gap between the annular outermost side of the plate and the interior surface of the annular flange of the first portion of the inertia member; characterized by a first elastomeric ring and a second elastomeric ring positioned against opposite sides of the plate ; and a second portion of the inertia member fastened to the first portion of the inertia member by one or more fasteners that each pass through one of the one or more apertures in the hub with a clearance gap such that the fasteners thereby placing the first elastomeric ring and the second elastomeric ring in axial compression, wherein the first and second elastomeric rings do not extend into the first gap ; wherein the hub is operatively coupled to the inertia member for rotation therewith only through the compression of the first and second elastomeric rings . a hub having a shaft-receiving member defining an axis of rotation (A) and a plate extending radially outward about the shaft-receiving member, wherein the plate has a one or more apertures therethrough and terminates with an annular outermost side ; a first portion of an inertia member defining a back face and a bore therethrough and having an annular flange that defines a belt-engaging surface concentric about the axis of rotation, wherein the shaft-receiving member of the hub is positioned in the bore and the hub has a smaller outer diameter compared to the inner diameter of the annular flange to define an inner cavity having a first gap between the annular outermost side of the plate and the interior surface of the annular flange of the first portion of the inertia member; characterized by a first elastomeric ring and a second elastomeric ring positioned against opposite sides of the plate ; and a second portion of the inertia member fastened to the first portion of the inertia member by one or more fasteners that each pass through one of the one or more apertures in the hub with a clearance gap such that the fasteners thereby placing the first elastomeric ring and the second elastomeric ring in axial compression, wherein the first and second elastomeric rings do not extend into the first gap ; wherein the hub is operatively coupled to the inertia member for rotation therewith only through the compression of the first and second elastomeric rings .
A monomer represented by the following general Formula (I): CH 2 =CR 1 -C(=O)-X-R 2 -Z-X 3 -NR 3 -C(=X 2 )-X 1 -R 4 (I) wherein: R 1 is H or -CH 3 ; R 2 is a (hetero)hydrocarbylene; X is -O- or -NH-; X 1 is -O-, -S-, -NH-, or a single bond; X 2 is -O- or -S-; X 3 is -O- or -NR 5 -; R 4 is hydrogen, (hetero)hydrocarbyl, or -N(R 3 ) 2 ; each R 3 and R 5 is independently hydrogen or a (hetero)hydrocarbyl; and Z is -C(=O)- or -NH-C(=O)-. R 1 is H or -CH 3 ; R 2 is a (hetero)hydrocarbylene; X is -O- or -NH-; X 1 is -O-, -S-, -NH-, or a single bond; X 2 is -O- or -S-; X 3 is -O- or -NR 5 -; R 4 is hydrogen, (hetero)hydrocarbyl, or -N(R 3 ) 2 ; each R 3 and R 5 is independently hydrogen or a (hetero)hydrocarbyl; and Z is -C(=O)- or -NH-C(=O)-.
A method for making a foam control composition comprising a cross-linked polyorganosiloxane material including a dispersed silica filler, said method comprising the steps of: A) preparing a hydrosilylation reaction mixture by combining the following components: (i) silica filler, (ii) a polyorganosiloxane having at least two reactive substituents capable of addition reaction with component (iii) via hydrosilylation, (iii) a polyorganosiloxane having at least three reactive substituents capable of addition reaction with component (ii) via hydrosilylation, and (iv) a hydrosilylation catalyst; B) conducting a hydrosilylation reaction of components (ii) and (iii) until the reaction mixture at least partially gels to form a hydrosilylation reaction product; and C) shearing the hydrosilylation reaction product of step B); wherein the method is characterized by the step of: D) combining the hydrosilylation reaction product of step C) with a (v) silicone resin and an (vi) condensation catalyst to form a condensation reaction mixture and conducting a condensation reaction between the (v) silicone resin and the hydrosilylation reaction product of step C) to form a condensation reaction product. A) preparing a hydrosilylation reaction mixture by combining the following components: (i) silica filler, (ii) a polyorganosiloxane having at least two reactive substituents capable of addition reaction with component (iii) via hydrosilylation, (iii) a polyorganosiloxane having at least three reactive substituents capable of addition reaction with component (ii) via hydrosilylation, and (iv) a hydrosilylation catalyst; (i) silica filler, (ii) a polyorganosiloxane having at least two reactive substituents capable of addition reaction with component (iii) via hydrosilylation, (iii) a polyorganosiloxane having at least three reactive substituents capable of addition reaction with component (ii) via hydrosilylation, and (iv) a hydrosilylation catalyst; B) conducting a hydrosilylation reaction of components (ii) and (iii) until the reaction mixture at least partially gels to form a hydrosilylation reaction product; and C) shearing the hydrosilylation reaction product of step B);
An electro-optical modulator, comprising: a bus waveguide for transmission of a light signal; an optical resonator cavity that is coupled to the bus waveguide to allow optical coupling between the optical resonator cavity and the bus waveguide; a capacitive structure formed to spatially overlap with a part of the optical resonator cavity, the capacitive structure composed of graphene, wherein the capacitive structure is controlled by an electrical signal such that an optical transmission characteristic of the electro-optical modulator is controllable by the electrical signal, wherein the optical resonator is configured to attenuate a transmission in the optical waveguide while a voltage is applied to the graphene. a bus waveguide for transmission of a light signal; an optical resonator cavity that is coupled to the bus waveguide to allow optical coupling between the optical resonator cavity and the bus waveguide; a capacitive structure formed to spatially overlap with a part of the optical resonator cavity, the capacitive structure composed of graphene, wherein the capacitive structure is controlled by an electrical signal such that an optical transmission characteristic of the electro-optical modulator is controllable by the electrical signal, wherein the optical resonator is configured to attenuate a transmission in the optical waveguide while a voltage is applied to the graphene.
A computer implemented method of reviewing applications for delivery via an application delivery server , comprising: identifying , for an application submitted by an application developer, a messaging object configured with an action by the application developer, wherein the application with the messaging object causes the application to fulfill the action or perform an action, and wherein the action comprises performing a function or providing a content item; selecting , based on metadata associated with the application, a second application that is similar to the application, the second application already having passed the review process; determining a classification score based on an action approved for the second application and the action of the messaging object provided by the application developer; updating a delivery control parameter based on the classification score, wherein the delivery control parameter comprises an indicator to cause the application delivery server to control delivery of the application; and controlling , responsive to the updated delivery control parameter, delivery of the application by the application delivery server. identifying , for an application submitted by an application developer, a messaging object configured with an action by the application developer, wherein the application with the messaging object causes the application to fulfill the action or perform an action, and wherein the action comprises performing a function or providing a content item; selecting , based on metadata associated with the application, a second application that is similar to the application, the second application already having passed the review process; determining a classification score based on an action approved for the second application and the action of the messaging object provided by the application developer; updating a delivery control parameter based on the classification score, wherein the delivery control parameter comprises an indicator to cause the application delivery server to control delivery of the application; and controlling , responsive to the updated delivery control parameter, delivery of the application by the application delivery server.
A gastric-retention type sustained-release formulation comprising: a sustained-release granulated material, which comprises granules comprising metformin or a pharmaceutically acceptable salt thereof and a swellable polymer, and a coating layer containing a water-insoluble polymer applied on the surface of the granules; and a superdisintegrant, wherein the superdisintegrant is present as an extragranular component mixed with the sustained-release granulated material, wherein the superdisintegrant is at least one selected from the group consisting of croscarmellose sodium and crospovidone, and wherein the superdisintegrant is comprised in the amount from 0.5 wt% to 5 wt% based on the total amount of the formulation. a sustained-release granulated material, which comprises granules comprising metformin or a pharmaceutically acceptable salt thereof and a swellable polymer, and a coating layer containing a water-insoluble polymer applied on the surface of the granules; and a superdisintegrant, wherein the superdisintegrant is present as an extragranular component mixed with the sustained-release granulated material, wherein the superdisintegrant is at least one selected from the group consisting of croscarmellose sodium and crospovidone, and wherein the superdisintegrant is comprised in the amount from 0.5 wt% to 5 wt% based on the total amount of the formulation.
A method for managing graphics processing unit, GPU, allocation for a virtual machine, VM, comprising: intercepting, with a plurality of shadow libraries of the VM, a plurality of GPU API commands sent by applications; retransmitting, with the plurality of shadow libraries, the plurality of GPU API commands to a first GPU driver; wherein the first GPU driver comprises a plurality of native libraries for providing graphic APIs for the applications; recording a plurality of GPU command logs for a first GPU by logging the at least one GPU API commands with the plurality of shadow libraries; wherein a respective shadow library of the plurality of shadow libraries corresponds to a respective GPU API library of a plurality of GPU API libraries compatible with an operating system, OS, of the VM, and the respective shadow library has a respective GPU command log of the plurality of GPU command logs; offloading the first GPU driver, associated with the first GPU, from the OS of the VM; wherein by offloading the first GPU driver, the OS and the VM can no longer send commands to the first GPU; deallocating the first GPU from the VM; migrating the VM from a first host to a second host; allocating a second GPU to the VM; wherein the first GPU is associated with the first host and the second GPU is associated with the second host; loading a second GPU driver, associated with the second GPU, in the OS of the VM; and replaying the GPU command logs from the first GPU to the second GPU to restore a GPU context from the first GPU within the second GPU. intercepting, with a plurality of shadow libraries of the VM, a plurality of GPU API commands sent by applications; retransmitting, with the plurality of shadow libraries, the plurality of GPU API commands to a first GPU driver; wherein the first GPU driver comprises a plurality of native libraries for providing graphic APIs for the applications; recording a plurality of GPU command logs for a first GPU by logging the at least one GPU API commands with the plurality of shadow libraries; wherein a respective shadow library of the plurality of shadow libraries corresponds to a respective GPU API library of a plurality of GPU API libraries compatible with an operating system, OS, of the VM, and the respective shadow library has a respective GPU command log of the plurality of GPU command logs; offloading the first GPU driver, associated with the first GPU, from the OS of the VM; wherein by offloading the first GPU driver, the OS and the VM can no longer send commands to the first GPU; deallocating the first GPU from the VM; migrating the VM from a first host to a second host; allocating a second GPU to the VM; wherein the first GPU is associated with the first host and the second GPU is associated with the second host; loading a second GPU driver, associated with the second GPU, in the OS of the VM; and replaying the GPU command logs from the first GPU to the second GPU to restore a GPU context from the first GPU within the second GPU.
A communication method in a wireless network, comprising at an access point, AP, multi-link device, MLD, having multiple affiliated APs: sending, by a reporting affiliated AP, a management frame, characterized in that the management frame signals that one of the affiliated APs is a management AP providing profiles of all the affiliated APs. sending, by a reporting affiliated AP, a management frame, characterized in that the management frame signals that one of the affiliated APs is a management AP providing profiles of all the affiliated APs.