mhurhangee/ep-ind-claims huggingface dataset:
A high opacity white liquid electrophotographic ink containing a coated mica-based mineral with titania, wherein the mica-based mineral is passivated with a polymeric resin selected from the group consisting of latex-based resins, polyethylene-based resins, polyester-based resins, polyurethane- based resins, and mixtures thereof.
Milk-frothing device, comprising a dynamic mixing unit having a stator and a rotor which can be set in rotation relative to the stator, wherein the rotor and the stator are configured such that milk and air or an air/steam mixture (L, L/D) can first be fed to the dynamic mixing unit, then for frothing purposes can be subjected multiple times to a shearing effect in the dynamic mixing unit by rotation of the rotor relative to the stator, and finally can be discharged from the dynamic mixing unit, characterized in that both the rotor and the stator has multiple shearing element rows (9R, 9S) arranged concentrically around the axis of rotation in an alternating manner, and in that shearing element rows (9R, 9S) of the rotor and of the stator intermittently engage in one another such that the milk flowing between the rotor and the stator, which flows alternately through the shearing element rows (9R, 9S) of the rotor and of the stator, and the air or the air/steam mixture (L, L/D) are sheared in each case between two immediately adjacent shearing element rows, that is to say one shearing element row of the rotor and one shearing element row of the stator, due to the rotation of the rotor relative to the stator, and are subjected to a change in direction.
A capsule comprising a liquid core, at least one external envelope totally encapsulating the liquid core at its periphery, said external envelope being able to retain the liquid core when the capsule is immersed in a gas and comprising at least one gelled polyelectrolyte and/or one stiffened biopolymer, and one stiff intermediate envelope comprising at least one biopolymer, said intermediate envelope being located between the liquid core and said external envelope, said capsule being characterised in that it comprises at least one eukaryotic mammalian cell.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a control message for adding one or more secondary cells, SCells, of the base station, wherein one of the one or more SCells is configured to a physical uplink control channel, PUCCH, SCell on which PUCCH feedback for at least one of the one or more SCells is transmitted in case that the control message includes second information indicating that the one of the one or more SCells is the PUCCH SCell; transmitting the PUCCH feedback for the at least one of the one or more SCell on the PUCCH SCell in case that the control message includes first information for the at least one of the one or more SCells indicating that the PUCCH feedback for the at least one of the one or more SCells is transmitted on the PUCCH SCell; transmitting the PUCCH feedback for the at least one of the one or more SCells on a primary cell, PCell, of the base station in case that the first information for the at least one of the one or more SCells is not included in the control message; identifying whether the PUCCH SCell is configured and is activated; transmitting, to the base station, a message including Type 2 power headroom information for the PCell and Type 2 power headroom information for the PUCCH SCell in case that the PUCCH SCell is configured and is activated; and transmitting, to the base station, a message including Type 2 power headroom information for the PCell and not including the Type 2 power headroom information for the PUCCH SCell in case that the PUCCH SCell is configured and is not activated. receiving, from a base station, a control message for adding one or more secondary cells, SCells, of the base station, wherein one of the one or more SCells is configured to a physical uplink control channel, PUCCH, SCell on which PUCCH feedback for at least one of the one or more SCells is transmitted in case that the control message includes second information indicating that the one of the one or more SCells is the PUCCH SCell; transmitting the PUCCH feedback for the at least one of the one or more SCell on the PUCCH SCell in case that the control message includes first information for the at least one of the one or more SCells indicating that the PUCCH feedback for the at least one of the one or more SCells is transmitted on the PUCCH SCell; transmitting the PUCCH feedback for the at least one of the one or more SCells on a primary cell, PCell, of the base station in case that the first information for the at least one of the one or more SCells is not included in the control message; identifying whether the PUCCH SCell is configured and is activated; transmitting, to the base station, a message including Type 2 power headroom information for the PCell and Type 2 power headroom information for the PUCCH SCell in case that the PUCCH SCell is configured and is activated; and transmitting, to the base station, a message including Type 2 power headroom information for the PCell and not including the Type 2 power headroom information for the PUCCH SCell in case that the PUCCH SCell is configured and is not activated.
A method for a safe handling of text messages received by a communication device owned by a user, comprising the following steps in an application server: receiving a request from the communication device, the request containing an identifier of the communication device and presence data (DatP) indicating that the communication device is associated with a service entity via a wireless session, the service entity being a vehicle, characterized in that it comprises the following steps: sending a notification to a presence server, the notification containing the identifier of the communication device and the presence data in order that the presence server updates location information of the user by means of the identifier of the communication device and the presence data, receiving a text message having the user as recipient, interrogating the presence server to check whether the communication device is associated with a service entity, sending a message to a network server, if the presence server informs that the communication device is associated with the service entity, the message (MesC) including at least a part of the content of the text message, the network server generating a voice message from the content of the message and providing the voice message via an audio call to the communication device. sending a notification to a presence server, the notification containing the identifier of the communication device and the presence data in order that the presence server updates location information of the user by means of the identifier of the communication device and the presence data, receiving a text message having the user as recipient, interrogating the presence server to check whether the communication device is associated with a service entity, sending a message to a network server, if the presence server informs that the communication device is associated with the service entity, the message (MesC) including at least a part of the content of the text message, the network server generating a voice message from the content of the message and providing the voice message via an audio call to the communication device.
A child resistant laminate package comprising a first panel and at least two second panels joined to the first panel, wherein the second panels are disposed in a plane which is different from the plane of the first panel, and wherein the first and at least two second panels comprise: an inner layer; an outer layer; an adhesive layer disposed between the inner layer and the outer layer; wherein the outer film layer is scored to form at least one peelable flap portion comprising at least one tab which is continuous with the peelable flap portion, wherein the at least one tab is disposed at least partially on one of the at least two second panels; wherein the inner layer is scored to form at least one access point into the package, wherein the at least one access point is disposed at least partially within the location of the peelable flap portion; wherein the access point is disposed at least partially in the first panel; characterised in that at least one decoy tab is disposed on at least one of the second panels such that the at least one decoy tab is not scoredly continuous with the peelable flap portion. an inner layer; an outer layer; an adhesive layer disposed between the inner layer and the outer layer; wherein the outer film layer is scored to form at least one peelable flap portion comprising at least one tab which is continuous with the peelable flap portion, wherein the at least one tab is disposed at least partially on one of the at least two second panels; wherein the inner layer is scored to form at least one access point into the package, wherein the at least one access point is disposed at least partially within the location of the peelable flap portion; wherein the access point is disposed at least partially in the first panel; characterised in that at least one decoy tab is disposed on at least one of the second panels such that the at least one decoy tab is not scoredly continuous with the peelable flap portion.
Method for adapting a control setting of a remote control to a model which is to be controlled, wherein the remote control comprises reception means by which transmission data of the model which is to be controlled can be received, characterized in that the model which is to be controlled comprises a model-side controller, which, by way of a model-side transceiver, arranges for the transmission of transmission data, which contains an identification code (C1; Cn) deposited in a model-side memory, which concurs with an identification code (C1; C2; C3; C4) which is deposited in the remote control, and a controller of the remote control, on reception of the transmission data of the model which contains the identification code (C1; Cn), activates one of a plurality of control settings (SE1; SE2; SE3; SE4), which are stored in a remote control-side memory and are allocated in each case to one of the identification codes (C1; C2; C3; C4), which is allocated to the concordant identification code (C1; C2; C3; C4),
A propulsion system comprising: a nozzle attached to the down stream end of a support member; the nozzle includes a primary nozzle and a secondary nozzle; and the secondary nozzle is engaged with the primary nozzle by at least one stator; wherein the primary nozzle defines a first, second and third sections extending along a longitudinal direction of the primary nozzle, the first section extends in a direction that is substantially parallel to a central longitudinal axis of the nozzle, the second section tapering inwardly in a direction toward the central longitudinal axis and the third section extending in a direction that is substantially parallel to the central longitudinal axis, characterized in that the secondary nozzle is located within the primary nozzle. a nozzle attached to the down stream end of a support member; the nozzle includes a primary nozzle and a secondary nozzle; and the secondary nozzle is engaged with the primary nozzle by at least one stator; wherein the primary nozzle defines a first, second and third sections extending along a longitudinal direction of the primary nozzle, the first section extends in a direction that is substantially parallel to a central longitudinal axis of the nozzle, the second section tapering inwardly in a direction toward the central longitudinal axis and the third section extending in a direction that is substantially parallel to the central longitudinal axis, characterized in that the secondary nozzle is located within the primary nozzle.
A block copolymer hydrogenate, which is a hydrogenate of a block copolymer having a polymer block containing a structural unit derived from an aromatic vinyl compound in an amount of more than 70 mol%, and a polymer block containing a structural unit derived from a conjugated diene compound in an amount of 30 mol% or more, and further satisfies the following requirements: Requirement: The content of the polymer block in the block copolymer hydrogenate is from 1 to 30% by mass; Requirement: The conjugated diene compound contains isoprene; Requirement: A total content of the 1,2-bond unit and the 3,4-bond unit in the structural units derived from the conjugated diene compound is 60 mol% or more; Requirement: The hydrogenation rate of the polymer block is 60 mol% or more; and Requirement: The block copolymer hydrogenate has a serial temperature range where tanδ, as measured based on JIS K7244-10 as indicated in the experimental section, and under the conditions of a strain of 0.1%, a frequency of 1 Hz, a measurement temperature of -70 to 100°C and a rate of temperature increase of 3°C/min, is 1.0 or more, and the maximum width of the temperature range is 16°C or more. Requirement: The content of the polymer block in the block copolymer hydrogenate is from 1 to 30% by mass; Requirement: The conjugated diene compound contains isoprene; Requirement: A total content of the 1,2-bond unit and the 3,4-bond unit in the structural units derived from the conjugated diene compound is 60 mol% or more; Requirement: The hydrogenation rate of the polymer block is 60 mol% or more; and Requirement: The block copolymer hydrogenate has a serial temperature range where tanδ, as measured based on JIS K7244-10 as indicated in the experimental section, and under the conditions of a strain of 0.1%, a frequency of 1 Hz, a measurement temperature of -70 to 100°C and a rate of temperature increase of 3°C/min, is 1.0 or more, and the maximum width of the temperature range is 16°C or more.
A method of evaluating a patient suspected of having a central nervous system injury comprising: measuring the level of at least one inflammasome protein in a biological sample obtained from a patient presenting with clinical symptoms consistent with a CNS injury, wherein the biological sample is cerebrospinal fluid, blood, serum, or plasma, and wherein the at least one inflammasome protein is nucleotide-binding leucine-rich repeat pyrin domain containing protein 1 (NLRP1), apoptosis-associated speck- like protein containing a caspase recruitment domain, caspase-1, or the p20 subunit of caspase-1; determining the presence or absence of an elevated level of the at least one inflammasome protein relative to (i) the level of the at least one inflammasome protein in a control sample or (ii) a pre-determined reference value or range of reference values; and selecting the patient if the patient exhibits the presence of the elevated level of the at least one inflammasome protein as having the CNS injury or a more severe CNS injury, optionally wherein the biological sample is obtained within one week, five days or three days of the suspected injury. measuring the level of at least one inflammasome protein in a biological sample obtained from a patient presenting with clinical symptoms consistent with a CNS injury, wherein the biological sample is cerebrospinal fluid, blood, serum, or plasma, and wherein the at least one inflammasome protein is nucleotide-binding leucine-rich repeat pyrin domain containing protein 1 (NLRP1), apoptosis-associated speck- like protein containing a caspase recruitment domain, caspase-1, or the p20 subunit of caspase-1; determining the presence or absence of an elevated level of the at least one inflammasome protein relative to (i) the level of the at least one inflammasome protein in a control sample or (ii) a pre-determined reference value or range of reference values; and selecting the patient if the patient exhibits the presence of the elevated level of the at least one inflammasome protein as having the CNS injury or a more severe CNS injury,
A computer-implemented method for detecting a bulk operation at a storage service storing content, the method comprising: creating (502; 810) a model based on a usage pattern associated with content stored in a remote data store associated with the storage service; detecting an attempted operation performed on the content; and in response to a determination that the attempted operation deviates from the usage pattern, modifying (512; 840) a preservation policy for the content at the storage service by increasing a number of previous versions of the content preserved at the storage service. creating (502; 810) a model based on a usage pattern associated with content stored in a remote data store associated with the storage service; detecting an attempted operation performed on the content; and in response to a determination that the attempted operation deviates from the usage pattern, modifying (512; 840) a preservation policy for the content at the storage service by increasing a number of previous versions of the content preserved at the storage service.
A method for reducing amount of mercury in a liquid wherein said liquid is a liquid hydrocarbon or a condensate of natural gas, comprising flowing a mercury containing liquid first stream on one side of a porous membrane while flowing a liquid second stream containing at least one compound which reacts with or solubilizes said mercury on the other side of said porous membrane to permit contact of first and second stream via said pores, so as to remove mercury from said liquid first stream.
A method of controlling the location of shock waves generated at a leading edge (30, 80) of an engine intake of an engine in a powerplant of a supersonic vehicle, the intake comprising a compression surface (15, 210, 220) providing the leading edge (30, 80) and a cowl having a cowl lip downstream of the leading edge, so that the shock wave extends in an optimum orientation relative to the cowl lip thereby altering the effective shape of the air-intake, whereby the method comprises injecting air into an air flow captured by the air-intake, the air being injected through or adjacent the compression surface (15, 210, 220), downstream of the leading edge (30, 80) and upstream of the cowl lip, and the air being injected in a direction neither parallel nor substantially parallel to the captured air flow, and under sufficient pressure for the injected air to penetrate into the captured airflow, whereby a region of separated flow and a shear layer are formed in the captured airflow for controlling effective shape of the compression surfaces of a supersonic engine intake, wherein the direction and/or pressure of injection is controlled depending on the velocity of the vehicle so that the shock wave (40, 120, 400, 500) extends in an optimum orientation relative to the cowl lip for optimising the associated shock system geometry.
A flat bed printer comprising a flat bed, a print head assembly (16, 24), a drive system arranged to move the print head assembly over the bed, a controller arranged to control operations of the print head assembly and the drive system, wherein the controller does not necessarily have to be implemented in the printer itself but may also be an external computer or a mobile control device such as a smartphone or the like having an App for controlling the printer, and an obstacle detection system arranged to detect obstacles in a region of movement of the print head assembly, characterized in that the controller has a split-bed mode of operation in which the movements of the print head assembly (16, 24) are confined to only a part of the bed while another part of the bed is left idle, and the controller is arranged to calculate, when an obstacle is detected in the split-bed mode of operation, an expected time to collision after which the print head assembly will collide with the obstacle.
A floor panel connection system, comprising: an aircraft airframe having a plurality of apertures along a lateral edge portion; a floor panel having an edge region configured for overlapping engagement with the lateral edge portion of the airframe, the edge region having a plurality of holes; a vertical load resisting coupling device (302, 402, 502) connecting the floor panel to the airframe, configured for resisting forces applied to the floor panel in a direction perpendicular to a top facial plane of the floor panel without significantly resisting lateral forces applied to the floor panel so that the vertical load resisting coupling device (302, 402, 502) allows the floor panel to move relative to the airframe when lateral forces are applied to the floor panel, the vertical load resisting coupling device (302, 402, 502) received in one or more holes of the plurality of holes; and a shear load resisting coupling device (102, 202) connecting the floor panel to the airframe separate from the vertical load resisting coupling device (302, 402, 502), configured for resisting forces applied to the panel in a direction parallel to the top facial plane of the floor panel without significantly resisting vertical forces applied to the floor panel so that the shear load resisting coupling device (102, 202) is configured to allow movement of the floor panel relative to the airframe when vertical forces are applied to the floor panel, the shear load resisting coupling device (102, 202) received in at least one hole of the plurality of holes. an aircraft airframe having a plurality of apertures along a lateral edge portion; a floor panel having an edge region configured for overlapping engagement with the lateral edge portion of the airframe, the edge region having a plurality of holes; a vertical load resisting coupling device (302, 402, 502) connecting the floor panel to the airframe, configured for resisting forces applied to the floor panel in a direction perpendicular to a top facial plane of the floor panel without significantly resisting lateral forces applied to the floor panel so that the vertical load resisting coupling device (302, 402, 502) allows the floor panel to move relative to the airframe when lateral forces are applied to the floor panel, the vertical load resisting coupling device (302, 402, 502) received in one or more holes of the plurality of holes; and a shear load resisting coupling device (102, 202) connecting the floor panel to the airframe separate from the vertical load resisting coupling device (302, 402, 502), configured for resisting forces applied to the panel in a direction parallel to the top facial plane of the floor panel without significantly resisting vertical forces applied to the floor panel so that the shear load resisting coupling device (102, 202) is configured to allow movement of the floor panel relative to the airframe when vertical forces are applied to the floor panel, the shear load resisting coupling device (102, 202) received in at least one hole of the plurality of holes.