mhurhangee/patent-ind-claim-en huggingface dataset:
A system (20; 320; 720) comprising: a heat source ; a vapor compression system (50; 350) comprising: a compressor for compressing a flow of a refrigerant; a first heat exchanger (60; 360; 720) along a refrigerant flowpath of the refrigerant; and a second heat exchanger (66; 366) along the refrigerant flowpath of the refrigerant; and a heat recovery system having: a first heat exchanger (110; 410) for transferring heat from the heat source to a heat recovery fluid along a heat recovery flowpath ; a second heat exchanger (112; 63; 412) along the heat recovery flowpath; an ejector having a motive flow inlet , a secondary flow inlet , and an outlet ; a pump ; and a loop of the heat recovery flowpath passing through the pump to the heat recovery system first heat exchanger, through the motive flow inlet and from the outlet back to the pump, wherein: the heat recovery system second heat exchanger and the vapor compression system first heat exchanger are respective portions of a shared heat exchanger for rejecting heat to a heat transfer fluid and/or are in common along a heat transfer fluid flowpath, characterised in that : a separate subcooler has respective legs (62-1, 62-2) along the vapor compression flowpath and the heat recovery flowpath; and the heat recovery system second heat exchanger is a condenser. a heat source ; a vapor compression system (50; 350) comprising: a compressor for compressing a flow of a refrigerant; a first heat exchanger (60; 360; 720) along a refrigerant flowpath of the refrigerant; and a second heat exchanger (66; 366) along the refrigerant flowpath of the refrigerant; and a compressor for compressing a flow of a refrigerant; a first heat exchanger (60; 360; 720) along a refrigerant flowpath of the refrigerant; and a second heat exchanger (66; 366) along the refrigerant flowpath of the refrigerant; and a heat recovery system having: a first heat exchanger (110; 410) for transferring heat from the heat source to a heat recovery fluid along a heat recovery flowpath ; a second heat exchanger (112; 63; 412) along the heat recovery flowpath; an ejector having a motive flow inlet , a secondary flow inlet , and an outlet ; a pump ; and a loop of the heat recovery flowpath passing through the pump to the heat recovery system first heat exchanger, through the motive flow inlet and from the outlet back to the pump, a first heat exchanger (110; 410) for transferring heat from the heat source to a heat recovery fluid along a heat recovery flowpath ; a second heat exchanger (112; 63; 412) along the heat recovery flowpath; an ejector having a motive flow inlet , a secondary flow inlet , and an outlet ; a pump ; and a loop of the heat recovery flowpath passing through the pump to the heat recovery system first heat exchanger, through the motive flow inlet and from the outlet back to the pump, a separate subcooler has respective legs (62-1, 62-2) along the vapor compression flowpath and the heat recovery flowpath; and the heat recovery system second heat exchanger is a condenser.
A phosphor plate comprising: a base plate having one side and an other side opposite the one side; a phosphor included in the base plate; a protrusion part formed so that a portion of the phosphor protrudes outwards from the one side or the other side of the base plate; and a recessed part formed by separation of the phosphor from a surface of the one side or the other side of the base plate, wherein the protrusion part accounts for 20% to 70% of the total surface area of the one side or the other side of the base plate, wherein a hardness of the phosphor is higher than a hardness of the base plate, wherein the one side or the other side of the base plate comprising the protrusion part and the recessed part has a surface roughness of 0.01 μm to 7 μm, and wherein a volume of the phosphor protruding outwards from the base plate accounts for greater than 0% and less than 50% of the total volume of the phosphor which forms the protrusion part, characterized in that : the recessed part accounts for greater than 0% and less than or equal to 5% of the total surface area of the one side or the other side of the base plate, and the recessed part is an empty space formed by removal of the phosphor from the surface of the one side or the other side of the base plate. a base plate having one side and an other side opposite the one side; a phosphor included in the base plate; a protrusion part formed so that a portion of the phosphor protrudes outwards from the one side or the other side of the base plate; and a recessed part formed by separation of the phosphor from a surface of the one side or the other side of the base plate, wherein the protrusion part accounts for 20% to 70% of the total surface area of the one side or the other side of the base plate, wherein a hardness of the phosphor is higher than a hardness of the base plate, wherein the one side or the other side of the base plate comprising the protrusion part and the recessed part has a surface roughness of 0.01 μm to 7 μm, and wherein a volume of the phosphor protruding outwards from the base plate accounts for greater than 0% and less than 50% of the total volume of the phosphor which forms the protrusion part, characterized in that : the recessed part accounts for greater than 0% and less than or equal to 5% of the total surface area of the one side or the other side of the base plate, and the recessed part is an empty space formed by removal of the phosphor from the surface of the one side or the other side of the base plate. the recessed part accounts for greater than 0% and less than or equal to 5% of the total surface area of the one side or the other side of the base plate, and the recessed part is an empty space formed by removal of the phosphor from the surface of the one side or the other side of the base plate.
A heart activity sensor structure , comprising: a flexible textile substrate ; at least two electrodes with an electric insulation between each of the at least two electrodes, wherein the at least two electrodes are applied on one side of the flexible textile substrate and configured to be placed against a skin of an exerciser in order to measure biosignals related to heart activity; an electrostatic discharge shield applied on one side the flexible textile substrate for protecting the at least two electrodes from static electricity, an electronics module integrated as part of the heart activity sensor structure , coupled to the at least two electrodes and configured at least to transmit information related to the heart activity to a training computer , characterized in that the electronics module comprises a casing covering the electronics module , wherein the casing comprises an electrically non-conducting outer surface and electrically conducting inner film , wherein the electrically conducting inner film is electrically coupled to the electrostatic discharge shield . a flexible textile substrate ; at least two electrodes with an electric insulation between each of the at least two electrodes, wherein the at least two electrodes are applied on one side of the flexible textile substrate and configured to be placed against a skin of an exerciser in order to measure biosignals related to heart activity; an electrostatic discharge shield applied on one side the flexible textile substrate for protecting the at least two electrodes from static electricity, an electronics module integrated as part of the heart activity sensor structure , coupled to the at least two electrodes and configured at least to transmit information related to the heart activity to a training computer , characterized in that the electronics module comprises a casing covering the electronics module , wherein the casing comprises an electrically non-conducting outer surface and electrically conducting inner film , wherein the electrically conducting inner film is electrically coupled to the electrostatic discharge shield .
Method for controlling a reactive power flow in a low-voltage electrical network by a control device in which, - the control device receives at least two locally measured electrical quantities, in particular locally measured network voltages and/or locally measured active and/or reactive powers from measuring devices (12a-f) respectively connected to a line section of the distribution network, - the control device assigns the locally determined electrical quantities to a position of the local measuring devices (12a-f), - a voltage profile along the line section is created by the control device as a function of the locally measured electrical quantities and the relative positions of the measuring devices (12a-f), - the control device determines a reactive power value for at least one subscriber on the line section as a function of the voltage profile , characterized in that - two reactive power values are determined by the control device in such a way that reactive power drawn remotely from a network connection point is superimposed by reactive power fed into the region at a network connection point, in such a way that - reactive power transmission via a transformer between the low-voltage network and a medium-voltage network is optimized to a value which can be predetermined externally for the control device . - the control device receives at least two locally measured electrical quantities, in particular locally measured network voltages and/or locally measured active and/or reactive powers from measuring devices (12a-f) respectively connected to a line section of the distribution network, - the control device assigns the locally determined electrical quantities to a position of the local measuring devices (12a-f), - a voltage profile along the line section is created by the control device as a function of the locally measured electrical quantities and the relative positions of the measuring devices (12a-f), - the control device determines a reactive power value for at least one subscriber on the line section as a function of the voltage profile , characterized in that - two reactive power values are determined by the control device in such a way that reactive power drawn remotely from a network connection point is superimposed by reactive power fed into the region at a network connection point, in such a way that - reactive power transmission via a transformer between the low-voltage network and a medium-voltage network is optimized to a value which can be predetermined externally for the control device .
A hardware-based processing node of an object memory fabric , the processing node comprising: a memory module comprising a hardware component installed in the hardware-based processing node , the memory module being arranged to store and manage one or more memory objects, the application data and metadata local to, and arranged to be stored within, the memory object, each memory object having one or more properties associated with the memory object and a globally unique object name in a name space of the object memory fabric, wherein: each memory object is arranged to be created by the hardware of the memory module through the name space of the object memory fabric , each memory object is arranged to be accessed by applications (410a-g, 515a-g) executing on the hardware-based processing node through the hardware of the memory module using a single memory reference instruction by the applications (410a-g, 515a-g), and each memory object is arranged to be managed by the hardware of the memory module through the name space of the object memory fabric based on metadata of the memory object, the metadata defining contextual information about data of the memory object, use and management of the memory object, and relationships to other memory objects, the metadata being accessible by the applications executing on the hardware-based processing node through an Application Program Interface (API) of the object memory fabric. each memory object is arranged to be created by the hardware of the memory module through the name space of the object memory fabric , each memory object is arranged to be accessed by applications (410a-g, 515a-g) executing on the hardware-based processing node through the hardware of the memory module using a single memory reference instruction by the applications (410a-g, 515a-g), and each memory object is arranged to be managed by the hardware of the memory module through the name space of the object memory fabric based on metadata of the memory object, the metadata defining contextual information about data of the memory object, use and management of the memory object, and relationships to other memory objects, the metadata being accessible by the applications executing on the hardware-based processing node through an Application Program Interface (API) of the object memory fabric.
A fuel system, comprising: a hydrogen source providing hydrogen gas ; a liquid fuel tank containing liquid fuel ; a hyperbaric mixing chamber in fluid communication with the hydrogen source to receive the hydrogen gas and in fluid communication with the liquid fuel tank to receive the liquid fuel , the hyperbaric mixing chamber configured to dissolve the hydrogen gas in the liquid fuel to generate hydrogenated fuel ; fuel injectors in fluid communication with the hyperbaric mixing chamber to receive the hydrogenated fuel and to inject the hydrogenated fuel into an engine, the flows from the hydrogen source to the hyperbaric mixing chamber , from the liquid fuel tank to the hyperbaric mixing chamber and from the hyperbaric mixing chamber to the fuel injectors being through check valves , wherein the hydrogen source is in fluid communication with the hyperbaric mixing chamber through a high pressure compressor characterized in that the high pressure compressor provides a pressure between 4,14 and 8,27 Bar in the hyperbaric mixing chamber , and unused hydrogenated return fuel being in serial fluid communication between an injection fuel pump and a return fuel bladder through a return flow from the injectors to the hyperbaric mixing chamber through a return fuel pressure regulator , a return fuel cooler , and one check valve . a hydrogen source providing hydrogen gas ; a liquid fuel tank containing liquid fuel ; a hyperbaric mixing chamber in fluid communication with the hydrogen source to receive the hydrogen gas and in fluid communication with the liquid fuel tank to receive the liquid fuel , the hyperbaric mixing chamber configured to dissolve the hydrogen gas in the liquid fuel to generate hydrogenated fuel ; fuel injectors in fluid communication with the hyperbaric mixing chamber to receive the hydrogenated fuel and to inject the hydrogenated fuel into an engine, the flows from the hydrogen source to the hyperbaric mixing chamber , from the liquid fuel tank to the hyperbaric mixing chamber and from the hyperbaric mixing chamber to the fuel injectors being through check valves , wherein the hydrogen source is in fluid communication with the hyperbaric mixing chamber through a high pressure compressor characterized in that the high pressure compressor provides a pressure between 4,14 and 8,27 Bar in the hyperbaric mixing chamber , and unused hydrogenated return fuel being in serial fluid communication between an injection fuel pump and a return fuel bladder through a return flow from the injectors to the hyperbaric mixing chamber through a return fuel pressure regulator , a return fuel cooler , and one check valve .
A method of reducing interference caused in a neighbouring cell (eNB B) by an aerial vehicle (Drone_A, Drone_B) in a mobile communications system, the method comprising the aerial vehicle steering radio transmissions of the aerial vehicle when the aerial vehicle is airborne to compensate for a tilt of the aerial vehicle such that a direction of the radio transmissions is adjusted to be directed vertically downward and the aerial vehicle adapting a beam width (BW_A, BW_B) of the radio transmissions characterized in that the beam width is adapted using a measure of an altitude (Alt_A, Alt_B) of the aerial vehicle above ground such that a footprint of the beam on the ground is controlled in relation to a cell size of a base station (eNB A) communicating with the aerial vehicle.
A rotor disc retention assembly of a gas turbine engine , the rotor disc retention assembly comprising a tension bolt , a rotor disc , a drive shaft , and a rotational axis ; the tension bolt and the rotor disc are arranged around the rotational axis ; the rotor disc comprising: - a hub , a web , a blade retention arrangement , the rotational axis , a first axial side and a second axial side , - the hub having a central bore around the rotational axis , - the web integrally formed with and extending radially outwards from the hub to the blade retention arrangement ; - the blade retention arrangement has a centre of mass and a radial plane passes through the centre of mass and perpendicular to the rotational axis , - the first axial side engages the tension bolt and the second axial side engages the drive shaft in staggered load transmission; and - the radial plane intersects the hub defining a first axial side portion towards the first axial side and a second axial side portion towards the second axial side , characterised in that , - the second axial side portion has an axial extent between 10% and 30% greater than an axial extent of the first axial side portion . - a hub , a web , a blade retention arrangement , the rotational axis , a first axial side and a second axial side , - the hub having a central bore around the rotational axis , - the web integrally formed with and extending radially outwards from the hub to the blade retention arrangement ; - the blade retention arrangement has a centre of mass and a radial plane passes through the centre of mass and perpendicular to the rotational axis , - the first axial side engages the tension bolt and the second axial side engages the drive shaft in staggered load transmission; and - the radial plane intersects the hub defining a first axial side portion towards the first axial side and a second axial side portion towards the second axial side , - the hub having a central bore around the rotational axis , - the web integrally formed with and extending radially outwards from the hub to the blade retention arrangement ; - the blade retention arrangement has a centre of mass and a radial plane passes through the centre of mass and perpendicular to the rotational axis , - the first axial side engages the tension bolt and the second axial side engages the drive shaft in staggered load transmission; and - the radial plane intersects the hub defining a first axial side portion towards the first axial side and a second axial side portion towards the second axial side , - the second axial side portion has an axial extent between 10% and 30% greater than an axial extent of the first axial side portion .
An air conditioning apparatus comprising a refrigerant circuit in which a plurality of indoor units , respectively comprising an indoor heat exchanger and an indoor expansion mechanism , are connected to an outdoor unit , including an outdoor expansion mechanism , via a connection pipe , the air conditioning apparatus individually controlling each of the indoor units to operate or stop, the air conditioning apparatus further comprising: a control unit that, when at least one of the indoor heat exchangers functions as a radiator, controls an opening degree of the indoor expansion mechanism and an opening degree of the outdoor expansion mechanism ; characterized by a determination unit that determines whether a refrigerant amount in the refrigerant circuit is appropriate (i) by using an opening degree ratio of the opening degree (Y) of the indoor expansion mechanism to the opening degree (X) of the outdoor expansion mechanism as an amount of change corresponding to a change in state of a refrigerant between the indoor expansion valve and the outdoor expansion valve , and/or (ii) on the basis of a temperature of a connection pipe between the indoor expansion mechanism and the outdoor expansion mechanism as an amount of change corresponding to a change in state of a refrigerant between the indoor expansion valve and the outdoor expansion valve , wherein each of the indoor expansion mechanisms is connected in series to the outdoor expansion mechanism via the connection pipe . a control unit that, when at least one of the indoor heat exchangers functions as a radiator, controls an opening degree of the indoor expansion mechanism and an opening degree of the outdoor expansion mechanism ; characterized by a determination unit that determines whether a refrigerant amount in the refrigerant circuit is appropriate (i) by using an opening degree ratio of the opening degree (Y) of the indoor expansion mechanism to the opening degree (X) of the outdoor expansion mechanism as an amount of change corresponding to a change in state of a refrigerant between the indoor expansion valve and the outdoor expansion valve , and/or (ii) on the basis of a temperature of a connection pipe between the indoor expansion mechanism and the outdoor expansion mechanism as an amount of change corresponding to a change in state of a refrigerant between the indoor expansion valve and the outdoor expansion valve , (i) by using an opening degree ratio of the opening degree (Y) of the indoor expansion mechanism to the opening degree (X) of the outdoor expansion mechanism as an amount of change corresponding to a change in state of a refrigerant between the indoor expansion valve and the outdoor expansion valve , and/or (ii) on the basis of a temperature of a connection pipe between the indoor expansion mechanism and the outdoor expansion mechanism as an amount of change corresponding to a change in state of a refrigerant between the indoor expansion valve and the outdoor expansion valve , wherein each of the indoor expansion mechanisms is connected in series to the outdoor expansion mechanism via the connection pipe .