mhurhangee/patent-ind-claim-en huggingface dataset:
A liner for installation within a host pipeline, the host pipeline for transporting potentially explosive, flammable, and/or toxic liquids such as crude oil, and gases such methane and propane, over long distances and at high pressures, such as above 8.0 × 10 6 Pa, the liner comprising a first layer comprising a hollow cylinder of polymeric material having sufficient flexibility to be compressed, deformed and re-formed, a second layer comprising wrap material, the wrap material wrapped around the first layer, a third layer comprising wrap material wrapped around the second layer, the liner having a first end spaced apart from a second end, at least one strengthener member on the liner and extending from the first end to the second end of the liner, wherein the at least one strengthener member is an axial tape or flattened tube, and a plurality of fiber members wound around and outside of the at least one strengthener member, wherein said second layer is helically wrapped around said first layer and said third layer is helically wrapped around said second layer in a direction opposite thereto, whereby said second and third layers provide reinforcement to said liner and said at least one strengthener member provides axial reinforcement to said liner to facilitate pulling into said pipeline, the arrangement being such that, in use, said liner comprises a stand-alone structure that is capable of withstanding operating and installation loadings, and that is deformable into a deformed shape to facilitate installation in said pipeline, said plurality of fiber members helping to maintain the positioning of said at least one strengthener member relative to said second and third layers, and facilitating the integrity of said liner while it is being installed in said pipeline.
A method of wireless communication at a user equipment, UE, comprising: receiving an indication of at least one parameter in a System Information Block, SIB, from a base station , wherein the indication comprises a Transport Block Size, TBS, value corresponding to an unassigned Modulation and Coding Scheme, MCS, index; transmitting a random access request to the base station ; receiving a MCS index in a random access response, RAR, from the base station, wherein the MCS index received in the RAR comprises the unassigned MCS index; and transmitting a connection request message to the base station using a number of resource units based on the MCS index and the TBS value indicated in the SIB. receiving an indication of at least one parameter in a System Information Block, SIB, from a base station , wherein the indication comprises a Transport Block Size, TBS, value corresponding to an unassigned Modulation and Coding Scheme, MCS, index; transmitting a random access request to the base station ; receiving a MCS index in a random access response, RAR, from the base station, wherein the MCS index received in the RAR comprises the unassigned MCS index; and transmitting a connection request message to the base station using a number of resource units based on the MCS index and the TBS value indicated in the SIB.
An atomiser for a vapour provision system comprising: a vaporisation chamber having a volume; a vapour generating element disposed in the vaporisation chamber for providing vapour into the vaporisation chamber volume; at least one plenum chamber separated from the vaporisation chamber; one or more separating walls to separate the or each plenum chamber from the vaporisation chamber; and an air flow path through the atomiser comprising: a vapour collecting portion through the vaporisation chamber smaller than said volume, along which air travels to collect vapour provided by the vapour generating element; and at least one transport portion through a plenum chamber, the or each transport portion delivering air to or collecting air from the vapour collection portion; in which the or each separating wall includes one or more apertures , each communicating with the or a vapour collection portion of the airflow path. a vaporisation chamber having a volume; a vapour generating element disposed in the vaporisation chamber for providing vapour into the vaporisation chamber volume; at least one plenum chamber separated from the vaporisation chamber; one or more separating walls to separate the or each plenum chamber from the vaporisation chamber; and an air flow path through the atomiser comprising: a vapour collecting portion through the vaporisation chamber smaller than said volume, along which air travels to collect vapour provided by the vapour generating element; and at least one transport portion through a plenum chamber, the or each transport portion delivering air to or collecting air from the vapour collection portion; a vapour collecting portion through the vaporisation chamber smaller than said volume, along which air travels to collect vapour provided by the vapour generating element; and at least one transport portion through a plenum chamber, the or each transport portion delivering air to or collecting air from the vapour collection portion; in which the or each separating wall includes one or more apertures , each communicating with the or a vapour collection portion of the airflow path.
A gas turbine engine component having a hot gas side which is intended to face a hot gas flow, and a coolant side which is intended to face a coolant flow; said component comprising a monolithic first member which is made of a first material via an additive manufacturing method, and a second member which is made of a second material having a thermal conductivity higher than that of said first material, and is form-locked into said first member , characterized in that the second member is plate- or layer- shaped and is fully enclosed by the first member , the first member has a cavity in which the second member is located, wherein the cavity and the second member have shapes complementary to each other.
Methylene blue comprising less than 3% of impurities, measured by HPLC under the conditions of the European Pharmacopeia 5.4, and a level of metals of less than 20 μg/g.
An electromechanical generator for converting mechanical vibrational energy into electrical energy, the electromechanical generator comprising: a mass resiliently connected to a body by a biasing device and adapted to oscillate about an equilibrium point relative to the body with an oscillation amplitude, a transducer configured to convert oscillations of the mass about the equilibrium point relative to the body into electrical energy, characterised by a resilient device disposed between the biasing device and the mass, wherein the resilient device is configured to be deformed between the biasing device and the mass only when the oscillation amplitude exceeds a predetermined non-zero threshold amplitude.
An array substrate , comprising: a base substrate ; an active layer and a first transparent electrode , disposed on the base substrate , wherein the first transparent electrode is a common electrode; an etch stop layer disposed on the active layer , the etch stop layer configured to protect a portion of the active layer ; a protection layer disposed on a gate insulating layer ; and a gate electrode and source/drain electrodes ; wherein the active layer and the first transparent electrode have a same base material and are disposed on the same layer, wherein the gate insulating layer made of silicon oxide and/or nitride oxide is disposed on the active layer , the etch stop layer made of photoresist and the first transparent electrode ; and wherein the gate electrode is disposed between the gate insulating layer and the protection layer and over the etch stop layer and the active layer , the source/drain electrodes are disposed on the protection layer and above a doped region of the active layer and electrically connected to the doped region of the active layer through via holes formed in the protection layer and the gate insulating layer . a base substrate ; an active layer and a first transparent electrode , disposed on the base substrate , wherein the first transparent electrode is a common electrode; an etch stop layer disposed on the active layer , the etch stop layer configured to protect a portion of the active layer ; a protection layer disposed on a gate insulating layer ; and a gate electrode and source/drain electrodes ; wherein the active layer and the first transparent electrode have a same base material and are disposed on the same layer, wherein the gate insulating layer made of silicon oxide and/or nitride oxide is disposed on the active layer , the etch stop layer made of photoresist and the first transparent electrode ; and wherein the gate electrode is disposed between the gate insulating layer and the protection layer and over the etch stop layer and the active layer , the source/drain electrodes are disposed on the protection layer and above a doped region of the active layer and electrically connected to the doped region of the active layer through via holes formed in the protection layer and the gate insulating layer .
Method for detecting the configuration of a ventilation system, the ventilation system comprising a control apparatus , a first subsystem , which first subsystem contains a first ventilation unit , the ventilation unit comprising an exhaust fan , a first exhaust air duct connected to the exhaust fan, the ends of the exhaust air duct of which are led to premises and an exhaust air valve has been installed into the ends, and in which method the exhaust air valves in the premises are detected, characterized in that in the method - an individualizing identifier is determined for at least part of the exhaust air valves ; - an exhaust fan of the first ventilation unit is switched on; - the exhaust air valves installed into the first exhaust air duct are adjusted to the first flow position; - pressure reference values are determined for the exhaust air valves adjusted to the first flow position by measuring pressure differences over the said exhaust air valves ; - one exhaust air valve connected to the first exhaust air duct in the first premise is adjusted to the second flow position, in which air flow through the valve is substantially bigger than in the first flow position; - pressure differences are measured over the exhaust air valves in the first flow position and the measured pressure differences are compared with the reference pressure values for the said exhaust air valves ; - the exhaust air valves in the first flow position, the measured pressure difference of which deviates substantially from the reference pressure value, are determined as valves in the first premise , and they are given the same premise data as the exhaust air valve in the second flow position; and - the identifiers of the exhaust air valves with the same premise data are transmitted to the control apparatus . - an individualizing identifier is determined for at least part of the exhaust air valves ; - an exhaust fan of the first ventilation unit is switched on; - the exhaust air valves installed into the first exhaust air duct are adjusted to the first flow position; - pressure reference values are determined for the exhaust air valves adjusted to the first flow position by measuring pressure differences over the said exhaust air valves ; - one exhaust air valve connected to the first exhaust air duct in the first premise is adjusted to the second flow position, in which air flow through the valve is substantially bigger than in the first flow position; - pressure differences are measured over the exhaust air valves in the first flow position and the measured pressure differences are compared with the reference pressure values for the said exhaust air valves ; - the exhaust air valves in the first flow position, the measured pressure difference of which deviates substantially from the reference pressure value, are determined as valves in the first premise , and they are given the same premise data as the exhaust air valve in the second flow position; and - the identifiers of the exhaust air valves with the same premise data are transmitted to the control apparatus .
A compound having a structure of Formula LB-102: including pharmaceutically acceptable salts and stereoisomers thereof.
A micropump including - a stator , - a rotor slidably and rotatably mounted at least partially in the stator, the rotor comprising a first axial extension having a first diameter (D1) and a second axial extension having a second diameter (D2) greater than the first diameter, - a first valve (V1) formed by a first valve seal mounted on the stator around the first axial extension, in conjunction with a first channel in the rotor that is configured to allow liquid communication across the first valve seal when the first valve is in an open position, - a second valve (V2) formed by a second valve seal mounted on the stator around the second axial extension, in conjunction with a second channel in the rotor that is configured to allow liquid communication across the second valve seal when the second valve is in an open position, - a pump chamber formed between the rotor and stator and between the first valve seal and second valve seal, and - a cam system comprising a cam track on one of the rotor or stator and a cam follower on the other of the rotor or stator for axially displacing the rotor relative to the stator as a function of the rotation of the rotor, the cam track comprising a valves-closed chamber-full section , a valves-closed chamber-empty section , an intake section and an expel section , characterized in that the cam system comprises at least two cam tracks and associated cam followers , including a radially outer cam track and an associated radially outer cam follower , and a radially inner cam track and an associated radially inner cam follower , the radially outer cam track and radially inner cam track defining the same cam profile developed over 360 degrees. - a stator , - a rotor slidably and rotatably mounted at least partially in the stator, the rotor comprising a first axial extension having a first diameter (D1) and a second axial extension having a second diameter (D2) greater than the first diameter, - a first valve (V1) formed by a first valve seal mounted on the stator around the first axial extension, in conjunction with a first channel in the rotor that is configured to allow liquid communication across the first valve seal when the first valve is in an open position, - a second valve (V2) formed by a second valve seal mounted on the stator around the second axial extension, in conjunction with a second channel in the rotor that is configured to allow liquid communication across the second valve seal when the second valve is in an open position, - a pump chamber formed between the rotor and stator and between the first valve seal and second valve seal, and - a cam system comprising a cam track on one of the rotor or stator and a cam follower on the other of the rotor or stator for axially displacing the rotor relative to the stator as a function of the rotation of the rotor, the cam track comprising a valves-closed chamber-full section , a valves-closed chamber-empty section , an intake section and an expel section ,
A reconfigurable wall system, comprising: a plurality of modules configured to be arranged into a modular structure, wherein each module comprises first connection components and second connection components (320/320, 420/421, 520/521, 720/721a) configured to be attached to a connection component of another module at an attachment interface, each first connection component comprising: a first accessory channel defined by contours of the connection component; at least a portion of a second accessory channel , the second accessory channel being fully defined by the first and second connection components (320/320, 420/421, 520/521, 720/721a) that have been attached together; a support rail secured within at least one of the second accessory channels; a ceiling tile supported by the support rail; a wall panel secured to one or more of the connection components; and a door-opening header module configured to be secured to at least one of the second connection components. a first accessory channel defined by contours of the connection component; at least a portion of a second accessory channel , the second accessory channel being fully defined by the first and second connection components (320/320, 420/421, 520/521, 720/721a) that have been attached together; a support rail secured within at least one of the second accessory channels; a ceiling tile supported by the support rail; a wall panel secured to one or more of the connection components; and a door-opening header module configured to be secured to at least one of the second connection components.
An electronic musical instrument comprising: a plurality of operators which includes a first operator corresponding to a first pitch and a second operator corresponding to a second pitch; and a sound source , wherein the sound source is configured to: generate, in response to designation of the first operator and the second operator, a first output signal from a first close loop (36A to 40A) corresponding to the first pitch and a second output signal from a second close loop (36B to 40B) corresponding to the second pitch, generate an integration signal by integrating the first output signal and the second output signal; subtract a signal circulating through the first close loop (36A to 40A) from the integration signal to obtain a subtraction signal; and return the subtraction signal to the first close loop (36A to 40A), and then output from the first close loop, a musical sound signal including signal components corresponding to the second pitch as a musical sound signal corresponding to the first pitch. a plurality of operators which includes a first operator corresponding to a first pitch and a second operator corresponding to a second pitch; and a sound source , wherein the sound source is configured to: generate, in response to designation of the first operator and the second operator, a first output signal from a first close loop (36A to 40A) corresponding to the first pitch and a second output signal from a second close loop (36B to 40B) corresponding to the second pitch, generate an integration signal by integrating the first output signal and the second output signal; subtract a signal circulating through the first close loop (36A to 40A) from the integration signal to obtain a subtraction signal; and return the subtraction signal to the first close loop (36A to 40A), and then output from the first close loop, a musical sound signal including signal components corresponding to the second pitch as a musical sound signal corresponding to the first pitch. generate, in response to designation of the first operator and the second operator, a first output signal from a first close loop (36A to 40A) corresponding to the first pitch and a second output signal from a second close loop (36B to 40B) corresponding to the second pitch, generate an integration signal by integrating the first output signal and the second output signal; subtract a signal circulating through the first close loop (36A to 40A) from the integration signal to obtain a subtraction signal; and return the subtraction signal to the first close loop (36A to 40A), and then output from the first close loop, a musical sound signal including signal components corresponding to the second pitch as a musical sound signal corresponding to the first pitch.
A method of processing digital vascular images comprising the steps of: providing first digital vascular image data representing a first digital vascular image obtained by a first imaging mode, and second digital vascular image data representing a second digital vascular image obtained by a second imaging mode that is different from the first imaging mode; processing the first and second digital vascular image data with a two-dimensional, directional filter that has the effect of producing clusters of orthogonally adjacent image data points in which the magnitude of an intensity gradient between each orthogonally adjacent image data point is less than a first predetermined value; identifying clusters in each of the first and second digital vascular image data where the magnitude of the intensity gradient between one or more adjacent clusters is greater than a second predetermined value; identifying common clusters between the first and second digital vascular image data where the magnitude of the intensity gradient between one or more adjacent clusters is greater than a third predetermined value; and registering the common clusters between the first and second digital vascular image data. providing first digital vascular image data representing a first digital vascular image obtained by a first imaging mode, and second digital vascular image data representing a second digital vascular image obtained by a second imaging mode that is different from the first imaging mode; processing the first and second digital vascular image data with a two-dimensional, directional filter that has the effect of producing clusters of orthogonally adjacent image data points in which the magnitude of an intensity gradient between each orthogonally adjacent image data point is less than a first predetermined value; identifying clusters in each of the first and second digital vascular image data where the magnitude of the intensity gradient between one or more adjacent clusters is greater than a second predetermined value; identifying common clusters between the first and second digital vascular image data where the magnitude of the intensity gradient between one or more adjacent clusters is greater than a third predetermined value; and registering the common clusters between the first and second digital vascular image data.
A method for hydrocarbon recovery, comprising: receiving, from a control device , one or more screens associated with each of a plurality of hydrocarbon recovery tools , the one or more screens including one or more options for operating each of the plurality of tools and a control scheme associated with the one or more screens, the control scheme defining correlations between inputs from an input device of a remote controller and actions performed based on the inputs; generating one or more commands for operating at least one of the plurality of hydrocarbon recovery tools based on received user action and the control scheme associated with the at least one of the plurality of hydrocarbon recovery tools; transmitting, to the control device, the one or more commands; and receiving, from the control device, information indicating that the at least one of a plurality of tools performed an operation based on the one or more commands. receiving, from a control device , one or more screens associated with each of a plurality of hydrocarbon recovery tools , the one or more screens including one or more options for operating each of the plurality of tools and a control scheme associated with the one or more screens, the control scheme defining correlations between inputs from an input device of a remote controller and actions performed based on the inputs; generating one or more commands for operating at least one of the plurality of hydrocarbon recovery tools based on received user action and the control scheme associated with the at least one of the plurality of hydrocarbon recovery tools; transmitting, to the control device, the one or more commands; and receiving, from the control device, information indicating that the at least one of a plurality of tools performed an operation based on the one or more commands.
A composition comprising a refrigerant comprising CO 2 (R744), hexafluoropropene (FO-1216), and at least one compound A selected from trifluoroethylene (HFO-1123), trans-1,2-difluoroethylene [(E)-HFO-1132], cis-1,2-difluoroethylene [(Z)-HFO-1132], fluoroethylene (HFO-1141), and 3,3,3-trifluoropropyne (TFP).