mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for controlling the bio-mechanical ventricle-aorta matching of a patient, said apparatus comprising: a balloon, said balloon being inflatable through a catheter introducible in the arterial system of the patient, the apparatus being intended to provide quantities of medical gas at a controlled pressure to said balloon; a container, that can be loaded with medical gas from a gas source, at a compliance pressure (Pc), and can be set in direct fluid communication with the balloon for the whole treatment of the patient, said apparatus being characterized in that said container consists of a damping container in form of a bag, with the volume of said damping bag being significantly greater than the volume of the balloon, fine adjusting means of said compliance pressure (Pc) being provided to act on said damping bag in such a way that said compliance pressure (Pc) is maintained between the systolic pressure and the diastolic pressure of the patient.
An apparatus for alternating electric fields therapy using an optimization algorithm to treat tumors in a patient by applying electric fields to the tumors and normal tissues using one or more pairs of electrode pads containing most of the electrodes, the apparatus consisting of: an image classifier configured to classify at least one organ on patient imaging; and an electric field optimizer configured to create a treatment plan by setting the number and position of the applied individual electrodes based on the classifications of the tumors and normal tissues, arranging the electrodes on the electrode pads of preset size, and determining the magnitudes of voltage to apply to the electrodes, wherein the electric field optimizer is configured to determine an individual electric field intensity based on the following equation below E i = ∑ i = 1 n w j e ij and configured to calculate the electric field based on following equation f = ∑ i = 1 N E i − E 0 2 wherein E i is the electric field intensity value at the i th position, w j is the weighting of the j th electrode, e ij is the electric field intensity transmitted to the i th position by the j th electrode, and E 0 is the prescribed electric field intensity. an image classifier configured to classify at least one organ on patient imaging; and an electric field optimizer configured to create a treatment plan by setting the number and position of the applied individual electrodes based on the classifications of the tumors and normal tissues, arranging the electrodes on the electrode pads of preset size, and determining the magnitudes of voltage to apply to the electrodes, wherein the electric field optimizer is configured to determine an individual electric field intensity based on the following equation below E i = ∑ i = 1 n w j e ij and configured to calculate the electric field based on following equation f = ∑ i = 1 N E i − E 0 2 wherein E i is the electric field intensity value at the i th position, w j is the weighting of the j th electrode, e ij is the electric field intensity transmitted to the i th position by the j th electrode, and E 0 is the prescribed electric field intensity.
A spectrometer configured to determine an identity of analyte particles in solution, the spectrometer comprising: an electrode configured to be placed in an AC electric field; a controller configured to switch at least one property of the AC electric field from a first condition to a second condition, wherein when the AC electric field is in the first condition, the analyte particles are trapped in a first AC kinetic trap on the electrode and wherein when the AC electric field is in the second condition, the analyte particles trapped in a second AC kinetic trap on the electrode; a detector configured to determine at least one motion characteristic of the analyte particles from the first AC kinetic trap to the second AC kinetic trap in response to switching the at least one property of the AC electric field; and at least one processor programmed to determine an identity of the analyte particles based, at least in part, on the determined at least one motion characteristic. an electrode configured to be placed in an AC electric field; a controller configured to switch at least one property of the AC electric field from a first condition to a second condition, wherein when the AC electric field is in the first condition, the analyte particles are trapped in a first AC kinetic trap on the electrode and wherein when the AC electric field is in the second condition, the analyte particles trapped in a second AC kinetic trap on the electrode; a detector configured to determine at least one motion characteristic of the analyte particles from the first AC kinetic trap to the second AC kinetic trap in response to switching the at least one property of the AC electric field; and at least one processor programmed to determine an identity of the analyte particles based, at least in part, on the determined at least one motion characteristic.
A protective case for an electronic device comprising: - a main housing (14; 114); - a lid (16; 116) removably joined to the main housing (14; 114) to define an air and water tight volume for receiving the electronic device; - at least one air cavity defined by the electronic device inserted into the volume, the air cavity located between the electronic device and the main housing (14; 114) or lid (16; 116); and - at least one membrane assembly positioned on the main housing (14; 114) or lid (16; 116), wherein the membrane assembly is impermeable to air and sized to vibrate and translate acoustic energy from a sound source into vibrational energy without significant attenuation allowing sound waves to be generated on an opposing side of the membrane assembly either internal or external to the volume; characterized in that the main housing (14; 114) or lid (16; 116) comprises a microphone port having an isolated and sealed air cavity formed of a gasket of foam, rubber or elastomer, configured to surround a microphone to isolate sound and to surround a flash or camera to isolate light from reflecting into the camera, and in that the gasket includes a cutout section having a membrane disposed within to receive a flash and formed with a notch therein to form and seal an air chamber to direct and allow acoustic energy to travel to the microphone of the device. - a main housing (14; 114); - a lid (16; 116) removably joined to the main housing (14; 114) to define an air and water tight volume for receiving the electronic device; - at least one air cavity defined by the electronic device inserted into the volume, the air cavity located between the electronic device and the main housing (14; 114) or lid (16; 116); and - at least one membrane assembly positioned on the main housing (14; 114) or lid (16; 116), wherein the membrane assembly is impermeable to air and sized to vibrate and translate acoustic energy from a sound source into vibrational energy without significant attenuation allowing sound waves to be generated on an opposing side of the membrane assembly either internal or external to the volume;
Drain insert arrangement for a building, the building having a drain pipe, the drain insert arrangement comprising a connector having - an elongated hollow drain pipe insert having a lower end for insertion into a drain pipe and an upper end, - a sealing flange for creating a seal against a floor surrounding the drain pipe, the sealing flange further being arranged on said upper end and extending radially from the drain pipe insert, - the connector further comprising at least one deformable element (25, 31') arranged on the drain pipe insert, characterized by the drain insert arrangement further comprising a valve for guiding a fluid into the drain pipe, said valve having a central passage and being mounted in the drain pipe insert, and - the connector comprising a locking mechanism which is configured for cooperating with a corresponding locking mechanism in the valve which is mounted in the connector, wherein said connector and said valve each comprises a locking mechanism (27; 37") configured for cooperating with each other, thereby locking the valve in place inside the drain pipe insert of the connector. - an elongated hollow drain pipe insert having a lower end for insertion into a drain pipe and an upper end, - a sealing flange for creating a seal against a floor surrounding the drain pipe, the sealing flange further being arranged on said upper end and extending radially from the drain pipe insert, - the connector further comprising at least one deformable element (25, 31') arranged on the drain pipe insert, characterized by the drain insert arrangement further comprising a valve for guiding a fluid into the drain pipe, said valve having a central passage and being mounted in the drain pipe insert, and characterized by the drain insert arrangement further comprising a valve for guiding a fluid into the drain pipe, said valve having a central passage and being mounted in the drain pipe insert, and - the connector comprising a locking mechanism which is configured for cooperating with a corresponding locking mechanism in the valve which is mounted in the connector, wherein said connector and said valve each comprises a locking mechanism (27; 37") configured for cooperating with each other, thereby locking the valve in place inside the drain pipe insert of the connector.
An apparatus comprising: memory configured to store a credential comprising a cryptographic key which enables decryption of content, and at least one processing core configured to cause the credential to be employed to decrypt a first encrypted media stream to produce a first decrypted media stream, and to cause the first decrypted media stream be provided to a first rendering device over a first connection, the first encrypted media stream being associated with the credential, characterized in that the apparatus comprises a secure integrated component, configured to store at least two credentials, each credential comprising a cryptographic key which enables decryption of content, each credential being associated with a different content provider and/or authorized by a different content provider, the at least one processing core is configured to cause a first one of the at least two credentials to be employed to decrypt a second encrypted media stream to produce a second decrypted media stream and to cause the second decrypted media stream to be provided to a rendering device over a secured tunnel connection. memory configured to store a credential comprising a cryptographic key which enables decryption of content, and at least one processing core configured to cause the credential to be employed to decrypt a first encrypted media stream to produce a first decrypted media stream, and to cause the first decrypted media stream be provided to a first rendering device over a first connection, the first encrypted media stream being associated with the credential, characterized in that
A cathode material, comprising: an active component; and a sodium salt dispersed in the active component, wherein the sodium salt has a chemical structure of Na a M c O b, wherein 0<a≤3, 0<b≤7, 0<c≤3, and M comprises at least one element selected from the group of Mo, Cr, Ti and V, characterized in that the active component comprises at least one selected from the group of lithium cobaltate, lithium nickel cobalt manganite composite oxide and lithium nickel cobalt aluminate composite oxide. an active component; and a sodium salt dispersed in the active component, wherein the sodium salt has a chemical structure of Na a M c O b, wherein 0<a≤3, 0<b≤7, 0<c≤3, and M comprises at least one element selected from the group of Mo, Cr, Ti and V, characterized in that the active component comprises at least one selected from the group of lithium cobaltate, lithium nickel cobalt manganite composite oxide and lithium nickel cobalt aluminate composite oxide.
A method for migration of a virtual network function, VNF, from a source node to a destination node, the method comprising: - receiving by the destination node a snapshot of a state of the virtual network function implemented by the source node; and - receiving by the destination node state update elements encoding a change of the state of the virtual network function implemented by the source node caused by processing of one or more data packets received by the source node since the snapshot has been made, wherein a state update element has a packet header structure and a packet payload or wherein a state update element is a state update byte vector which is a data unit comprising a compact VNF-specific byte representation which does not have a packet header structure. - receiving by the destination node a snapshot of a state of the virtual network function implemented by the source node; and - receiving by the destination node state update elements encoding a change of the state of the virtual network function implemented by the source node caused by processing of one or more data packets received by the source node since the snapshot has been made, wherein a state update element has a packet header structure and a packet payload or wherein a state update element is a state update byte vector which is a data unit comprising a compact VNF-specific byte representation which does not have a packet header structure.
A method performed by a User Equipment, UE, comprising: the UE receives a dedicated signaling which configures a first bandwidth portion and a second bandwidth portion within a system bandwidth of a cell from a base station, wherein said first bandwidth portion corresponds to a bandwidth of a first radio frequency, RF, chain of the base station and said second bandwidth portion corresponds to a bandwidth of a second RF chain of the base station; the UE receives a first configuration indicating a first precoding resource group, PRG, size for partitioning the first bandwidth portion; and the UE receives a second configuration indicating a second PRG size for partitioning the second bandwidth portion, wherein the first PRG size is different from the second PRG size; wherein the first bandwidth portion comprises a first number of physical resource blocks, PRBs, wherein a boundary of the first bandwidth portion is indicated by the base station to the UE, and the second bandwidth portion comprises a second number of PRBs wherein a boundary of the second bandwidth portion is indicated by the base station to the UE, and wherein the UE determines PRGs within the first bandwidth portion according to the first configuration, the UE determines PRGs within the second bandwidth portion according to the second configuration, and the UE receives downlink data accordingly. the UE receives a dedicated signaling which configures a first bandwidth portion and a second bandwidth portion within a system bandwidth of a cell from a base station, wherein said first bandwidth portion corresponds to a bandwidth of a first radio frequency, RF, chain of the base station and said second bandwidth portion corresponds to a bandwidth of a second RF chain of the base station; the UE receives a first configuration indicating a first precoding resource group, PRG, size for partitioning the first bandwidth portion; and the UE receives a second configuration indicating a second PRG size for partitioning the second bandwidth portion, wherein the first PRG size is different from the second PRG size; wherein the first bandwidth portion comprises a first number of physical resource blocks, PRBs, wherein a boundary of the first bandwidth portion is indicated by the base station to the UE, and the second bandwidth portion comprises a second number of PRBs wherein a boundary of the second bandwidth portion is indicated by the base station to the UE, and wherein the UE determines PRGs within the first bandwidth portion according to the first configuration, the UE determines PRGs within the second bandwidth portion according to the second configuration, and the UE receives downlink data accordingly.
A device for removing heat from subcutaneous lipid-rich cells of a subject having skin, comprising: a heat exchanging member having a heat transfer surface configured to form a heat conducting interface with the subject's skin to remove heat from the lipid-rich cells such that the lipid-rich cells are substantially affected while non-lipid-rich cells in the epidermis are not substantially affected, and characterised by a flexible sensing device configured to be disposed in the heat conducting interface between the heat exchanging member and the subject's skin, wherein the sensing device is configured to sense a parameter at the heat conducting interface, the sensing device including a flexible substrate and a temperature sensor disposed on the flexible substrate, the flexible substrate having a profile corresponding to the profile of the heat conducting interface. a heat exchanging member having a heat transfer surface configured to form a heat conducting interface with the subject's skin to remove heat from the lipid-rich cells such that the lipid-rich cells are substantially affected while non-lipid-rich cells in the epidermis are not substantially affected, and characterised by a flexible sensing device configured to be disposed in the heat conducting interface between the heat exchanging member and the subject's skin, wherein the sensing device is configured to sense a parameter at the heat conducting interface, the sensing device including a flexible substrate and a temperature sensor disposed on the flexible substrate, the flexible substrate having a profile corresponding to the profile of the heat conducting interface.
A method for generating electrical power using stored compressed fluid, characterised by: providing a source fluid to first and second paths of a a dual-path fluid routing system (300/400/500/600/700/800) arranged to control both the pressure and the temperature of the source fluid, wherein said first and second paths each connects to an outlet node; regulating said source fluid to a first path pressure; regulating said source fluid to a second path pressure; restricting mass flow of said source fluid through said second path with a flow restriction device; changing the temperature of the first path fluid; mixing said first and second path fluids to provide a mixed fluid having a predetermined pressure and temperature to said outlet node; providing said mixed fluid as a turbine inlet fluid to a turbine-generator (960, 962) connected to the outlet node. providing a source fluid to first and second paths of a a dual-path fluid routing system (300/400/500/600/700/800) arranged to control both the pressure and the temperature of the source fluid, wherein said first and second paths each connects to an outlet node; regulating said source fluid to a first path pressure; regulating said source fluid to a second path pressure; restricting mass flow of said source fluid through said second path with a flow restriction device; changing the temperature of the first path fluid; mixing said first and second path fluids to provide a mixed fluid having a predetermined pressure and temperature to said outlet node; providing said mixed fluid as a turbine inlet fluid to a turbine-generator (960, 962) connected to the outlet node.
A method, comprising: receiving, by a call routing server, a request to establish a call between a client device and a remote telecommunications device; determining, by a call context server and based on a phone number included in the request to establish the call, a given transmission criterion that triggered distribution, to the client device, of a particular digital component that was presented by the client device prior to receiving the request to establish the call, wherein the given transmission criterion includes a keyword that triggers transmission of the particular digital component when the keyword is matched; identifying, in a data store storing a mapping of transmission criteria to contextual information and by the call context server, a set of contextual information that is mapped to the keyword that triggered transmission of the particular digital component; including, in the contextual information, scheduling information specifying available timeslots for performing a service identified in the contextual information; connecting, by the call routing server, the client device to the remote telecommunications device using the phone number; and transmitting, by the call context server, the set of contextual information, including the scheduling information, to the remote telecommunications device or a computing device that is associated with the remote telecommunications device while the call is being connected or in progress. receiving, by a call routing server, a request to establish a call between a client device and a remote telecommunications device; determining, by a call context server and based on a phone number included in the request to establish the call, a given transmission criterion that triggered distribution, to the client device, of a particular digital component that was presented by the client device prior to receiving the request to establish the call, wherein the given transmission criterion includes a keyword that triggers transmission of the particular digital component when the keyword is matched; identifying, in a data store storing a mapping of transmission criteria to contextual information and by the call context server, a set of contextual information that is mapped to the keyword that triggered transmission of the particular digital component; including, in the contextual information, scheduling information specifying available timeslots for performing a service identified in the contextual information; connecting, by the call routing server, the client device to the remote telecommunications device using the phone number; and transmitting, by the call context server, the set of contextual information, including the scheduling information, to the remote telecommunications device or a computing device that is associated with the remote telecommunications device while the call is being connected or in progress.