mhurhangee/patent-ind-claim-en huggingface dataset:
A rotor unit for a vessel containing a mixture of water and particles of recycled material, comprising: a rotor unit body ; a screen plate installed to the rotor unit body , configured to separate accepted recycled material penetrated through the screen plate and rejected recycled material remaining in the vessel; an outlet for the accepted recycled material for the lower portion of the vessel; a rotor connected to the rotor unit body and configured to rotate inside the vessel, comprising at least two wings configured to slush recycled material in a rotating action and at least two foils configured to clean the screen plate by rotating above the screen plate ; a space around the rotor defined by a rotor body ; pipework configured to bring diluting water from outside the vessel to the space around the rotor ; wherein the rotor body defining the space around the rotor comprises at least one opening allowing the diluting water to pass through the at least one opening towards the mixture of water and particles of recycled material, characterized in that the at least one opening at the rotor body is at the same level with a lower edge of the at least two wings or the at least two foils , wherein the diluting water is allowed to pass through the at least one opening to the screen plate . a rotor unit body ; a screen plate installed to the rotor unit body , configured to separate accepted recycled material penetrated through the screen plate and rejected recycled material remaining in the vessel; an outlet for the accepted recycled material for the lower portion of the vessel; a rotor connected to the rotor unit body and configured to rotate inside the vessel, comprising at least two wings configured to slush recycled material in a rotating action and at least two foils configured to clean the screen plate by rotating above the screen plate ; a space around the rotor defined by a rotor body ; pipework configured to bring diluting water from outside the vessel to the space around the rotor ; wherein the rotor body defining the space around the rotor comprises at least one opening allowing the diluting water to pass through the at least one opening towards the mixture of water and particles of recycled material, characterized in that the at least one opening at the rotor body is at the same level with a lower edge of the at least two wings or the at least two foils , wherein the diluting water is allowed to pass through the at least one opening to the screen plate .
A management device installed in a vehicle , comprising: a communication part configured to communicate with an on-board computer mounted on the vehicle ; an encryption processor configured to encrypt a management key used to update a key used for mutual authentication between the on-board computer and other on-board computers mounted on the vehicle, and thereby to generate an encrypted management key; a key generation part configured to generate the management key in connection with the key; a key storage unit configured to store the management key in connection with the key; an initially-delivered key storage unit configured to store a plurality of initially-delivered keys corresponding to candidates of initially-delivered keys held by the on-board computer ; and a verification part configured to verify correctness of encrypted data received from the on-board computer via the communication part by use of an initially-delivered key among the plurality of initially-delivered keys stored on the initially-delivered key storage unit ; wherein the communication part is configured to transmit the encrypted management key to the on-board computer mounted on the vehicle , and wherein the encryption processor is configured to encrypt the management key by use of the initially-delivered key succeeded in verification. a communication part configured to communicate with an on-board computer mounted on the vehicle ; an encryption processor configured to encrypt a management key used to update a key used for mutual authentication between the on-board computer and other on-board computers mounted on the vehicle, and thereby to generate an encrypted management key; a key generation part configured to generate the management key in connection with the key; a key storage unit configured to store the management key in connection with the key; an initially-delivered key storage unit configured to store a plurality of initially-delivered keys corresponding to candidates of initially-delivered keys held by the on-board computer ; and a verification part configured to verify correctness of encrypted data received from the on-board computer via the communication part by use of an initially-delivered key among the plurality of initially-delivered keys stored on the initially-delivered key storage unit ; wherein the communication part is configured to transmit the encrypted management key to the on-board computer mounted on the vehicle , and wherein the encryption processor is configured to encrypt the management key by use of the initially-delivered key succeeded in verification.
A laminate comprising a rubber layer (A) and a fluororesin layer (B), the fluororesin layer (B) comprising a copolymer containing a chlorotrifluoroethylene unit, a tetrafluoroethylene unit, and a perfluoroalkyl vinyl ether unit, the copolymer containing 96.0 to 97.4 mol% of the chlorotrifluoroethylene unit and the tetrafluoroethylene unit relative to all the monomer units constituting the copolymer and 2.6 to 4.0 mol% of the perfluoroalkyl vinyl ether unit relative to all the monomer units constituting the copolymer.
An epoxy resin composition, which is liquid at 25°C, comprising (A) an epoxy resin, (B) an aromatic amine-based curing agent, and (C) a curing accelerant, an equivalent ratio of amino groups in the aromatic amine-based curing agent (B) to epoxy groups in the epoxy resin (A) being from 0.7/1 to 1.5/1 and the curing accelerant (C) comprising an arylborate salt, wherein component (B) is at least one aromatic amine-based curing agent selected from the formulae , , and : wherein R 1 is selected from C 1 -C 6 monovalent hydrocarbon groups, CH 3 S-, and CH 3 CH 2 S-, and R 2 to R 4 which may be the same or different are selected from hydrogen, C 1 -C 6 monovalent hydrocarbon groups, CH 3 S-, and CH 3 CH 2 S-. (A) an epoxy resin, (B) an aromatic amine-based curing agent, and (C) a curing accelerant,
A system for providing protection from unsafe conditions in a photovoltaic electrical power generating system characterized by : at least one translucent darkness sensor in or on a photovoltaic electric system component, and to detect daylight resulting from a deformation, defect, or break in the power system component and generate a threshold signal indicative of the daylight detected by the darkness sensor; a controller in communication with said at least one translucent darkness sensor , the controller being configured to process the threshold signal to determine the existence of an unsafe condition , and generate an unsafe condition signal ; and an interruption device in communication with the controller , the interruption device being configured to interrupt flow of electrical current in the power system in response to the existence of an unsafe condition signal . at least one translucent darkness sensor in or on a photovoltaic electric system component, and to detect daylight resulting from a deformation, defect, or break in the power system component and generate a threshold signal indicative of the daylight detected by the darkness sensor; a controller in communication with said at least one translucent darkness sensor , the controller being configured to process the threshold signal to determine the existence of an unsafe condition , and generate an unsafe condition signal ; and an interruption device in communication with the controller , the interruption device being configured to interrupt flow of electrical current in the power system in response to the existence of an unsafe condition signal .
A manifold structure comprising: a body having a base plate and a cover plate that define a flow passage therebetween; and a plurality of walls that segment the flow passage into a plurality of channels , wherein each of the walls has a height (H) extending from the base plate to the cover plate and a non-linear length (L) that is elongated relative to a width (W) of the wall and extends in a direction normal to the height of the wall; wherein each of the walls is sinusoidal in shape and defines a period in a lengthwise direction and an amplitude in a widthwise direction, wherein the amplitude is directly proportional to a stiffness of the wall, and wherein the channels are oscillating heat pipe channels that are formed in the base plate and configured for two-phase passive heat spreading. a body having a base plate and a cover plate that define a flow passage therebetween; and a plurality of walls that segment the flow passage into a plurality of channels , wherein each of the walls has a height (H) extending from the base plate to the cover plate and a non-linear length (L) that is elongated relative to a width (W) of the wall and extends in a direction normal to the height of the wall; wherein each of the walls is sinusoidal in shape and defines a period in a lengthwise direction and an amplitude in a widthwise direction, wherein the amplitude is directly proportional to a stiffness of the wall, and wherein the channels are oscillating heat pipe channels that are formed in the base plate and configured for two-phase passive heat spreading.
Process for energy storage comprising: actuating a Cyclic Thermodynamic Transformation (TTC), first in one sense in a storage configuration/step and then in an opposite sense in a discharge configuration/step, between a basin for storing a work fluid having a critical temperature (T c ) lower than 0°C and a tank for storing said work fluid in at least partly liquid or super-critical phase with a storage temperature (T s ) close to the critical temperature (T); wherein in the storage step the process stores heat and potential energy in the form of pressure and generates energy in the discharge step; characterized in that in the storage step, first sensible heat and subsequently latent heat are removed from the work fluid by means of at least one heat carrier, in order to store in the tank said work fluid in the at least partly liquid or super-critical phase and with said storage temperature (T s ); wherein, in the discharge step, first latent heat and subsequently sensible heat are transferred to the work fluid by means of said at least one heat carrier. actuating a Cyclic Thermodynamic Transformation (TTC), first in one sense in a storage configuration/step and then in an opposite sense in a discharge configuration/step, between a basin for storing a work fluid having a critical temperature (T c ) lower than 0°C and a tank for storing said work fluid in at least partly liquid or super-critical phase with a storage temperature (T s ) close to the critical temperature (T); wherein in the storage step the process stores heat and potential energy in the form of pressure and generates energy in the discharge step; characterized in that in the storage step, first sensible heat and subsequently latent heat are removed from the work fluid by means of at least one heat carrier, in order to store in the tank said work fluid in the at least partly liquid or super-critical phase and with said storage temperature (T s ); wherein, in the discharge step, first latent heat and subsequently sensible heat are transferred to the work fluid by means of said at least one heat carrier.
A cartridge for coupling to a vaporizer body , the cartridge comprising: an identifier encoding information about the cartridge, wherein the identifier is configured to exchange data with a controller of the vaporizer body ; a vaporizable material; a heater configured to heat the vaporizable material; and a pair of cartridge contacts configured to engage a pair of vaporizer body contacts on the vaporizer body when the cartridge is coupled to the vaporizer body, wherein engaging the pair of cartridge contacts with the pair of vaporizer body contacts forms a circuit that provides both delivery of electrical energy from a power source in the vaporizer body to the heater and the exchange of data between the identifier and the controller of the vaporizer body. an identifier encoding information about the cartridge, wherein the identifier is configured to exchange data with a controller of the vaporizer body ; a vaporizable material; a heater configured to heat the vaporizable material; and a pair of cartridge contacts configured to engage a pair of vaporizer body contacts on the vaporizer body when the cartridge is coupled to the vaporizer body, wherein engaging the pair of cartridge contacts with the pair of vaporizer body contacts forms a circuit that provides both delivery of electrical energy from a power source in the vaporizer body to the heater and the exchange of data between the identifier and the controller of the vaporizer body.
An operating method of a target base station, BS, in a mobile communication system, the method comprising: receiving, from a source BS, alternative quality of service, QoS, profile, AQP, information; determining whether information matching QoS information allowed to be supported for a user equipment, UE, to be served is included in the AQP information; and when the information matching the QoS information allowed to be supported for the UE to be served is included in the AQP information, transmitting the matching information to an access and mobility management function, AMF, wherein, when the target BS is unable to support QoS information currently being supported by the source BS, and the AQP information includes information matching the QoS information allowed to be supported for the UE to be served, transmitting, to the source BS, the QoS information allowed to be supported for the UE to be served. receiving, from a source BS, alternative quality of service, QoS, profile, AQP, information; determining whether information matching QoS information allowed to be supported for a user equipment, UE, to be served is included in the AQP information; and when the information matching the QoS information allowed to be supported for the UE to be served is included in the AQP information, transmitting the matching information to an access and mobility management function, AMF, wherein, when the target BS is unable to support QoS information currently being supported by the source BS, and the AQP information includes information matching the QoS information allowed to be supported for the UE to be served, transmitting, to the source BS, the QoS information allowed to be supported for the UE to be served.
A light-emitting assembly, comprising: a plurality of light-emitting diodes , the light-emitting diode comprising a semiconductor layer sequence composed of at least a first type semiconductor layer, a second type semiconductor layer, and an active layer located between the first type semiconductor layer and the second type semiconductor layer, the light-emitting diode further comprising a first electrical contact layer electrically connected to the first type semiconductor layer and a second electrical contact layer electrically connected to the second type semiconductor layer, a support configured to support the light-emitting diodes ; and a continuous or discontinuous adhesive film for adhering the light-emitting diodes , provided between the support and the light-emitting diodes , the light-emitting diodes being arranged on the adhesive film in a regular arrangement, wherein a plurality of plateau-shaped protrusions are provided on a surface of the adhesive film and a convex surface of the plateau-shaped protrusions is in contact with the light-emitting diodes , characterised in that a height of the plateau-shaped protrusion is 10-20 μm which is greater than a thickness of the light-emitting diode . a plurality of light-emitting diodes , the light-emitting diode comprising a semiconductor layer sequence composed of at least a first type semiconductor layer, a second type semiconductor layer, and an active layer located between the first type semiconductor layer and the second type semiconductor layer, the light-emitting diode further comprising a first electrical contact layer electrically connected to the first type semiconductor layer and a second electrical contact layer electrically connected to the second type semiconductor layer, a support configured to support the light-emitting diodes ; and a continuous or discontinuous adhesive film for adhering the light-emitting diodes , provided between the support and the light-emitting diodes , the light-emitting diodes being arranged on the adhesive film in a regular arrangement, wherein a plurality of plateau-shaped protrusions are provided on a surface of the adhesive film and a convex surface of the plateau-shaped protrusions is in contact with the light-emitting diodes , characterised in that a height of the plateau-shaped protrusion is 10-20 μm which is greater than a thickness of the light-emitting diode .
An isolating decoupler comprising: a hub ; a pulley journalled to the hub ; a torsion spring connected to the hub ; a wrap spring connected to the torsion spring ; and the wrap spring frictionally engaged with a pulley surface ; characterized in that : the torsion spring is directly connected to the hub by a weld; and the wrap spring is directly connected to the torsion spring by a weld. a hub ; a pulley journalled to the hub ; a torsion spring connected to the hub ; a wrap spring connected to the torsion spring ; and the wrap spring frictionally engaged with a pulley surface ; characterized in that : the torsion spring is directly connected to the hub by a weld; and the wrap spring is directly connected to the torsion spring by a weld. the torsion spring is directly connected to the hub by a weld; and the wrap spring is directly connected to the torsion spring by a weld.
A two-sided absorbing and cooling textile comprising: an absorbent side formed by two separate yarns comprising a first yarn and a second yarn, wherein the first yarn and the second yarn are located on separate but adjacent knitting bars during construction of the two-sided absorbing and cooling textile , and wherein the first yarn and the second yarn together form raised loops on the absorbent side greater than 0.2 millimeter in pile height for absorbing moisture from a skin surface ; and a cooling side , wherein the cooling side is configured to transport the absorbed moisture from the absorbent side in order to expose the absorbed moisture to the cooling side for evaporation characterized in that the cooling side is formed by four separate yarns comprising the first yarn, the second yarn, an evaporative cooling yarn, and an elastomeric yarn. an absorbent side formed by two separate yarns comprising a first yarn and a second yarn, wherein the first yarn and the second yarn are located on separate but adjacent knitting bars during construction of the two-sided absorbing and cooling textile , and wherein the first yarn and the second yarn together form raised loops on the absorbent side greater than 0.2 millimeter in pile height for absorbing moisture from a skin surface ; and a cooling side , wherein the cooling side is configured to transport the absorbed moisture from the absorbent side in order to expose the absorbed moisture to the cooling side for evaporation characterized in that the cooling side is formed by four separate yarns comprising the first yarn, the second yarn, an evaporative cooling yarn, and an elastomeric yarn.
A tag (102-108; 200) comprising: a communication interface that is configured to transmit and receive wireless signals; a movement detector ; and a digital logic circuit configured to perform operations comprising: repetitively broadcasting wireless transmissions comprising a tag identification (ID) of the tag (102-108; 200) from the communication interface ; detecting a movement of the tag (102-108; 200) with the movement detector ; receiving a confirmation signal that is sent responsive to the broadcast tag ID at the communication interface of the tag (102-108; 200) indicating that information for the tag ID that was broadcast has been received; and characterized in that , the operations further comprising: adjusting a timing between the repetitive broadcasts responsive to receiving the confirmation signal and responsive to a determination that the movement does not satisfy a movement threshold. a communication interface that is configured to transmit and receive wireless signals; a movement detector ; and a digital logic circuit configured to perform operations comprising: repetitively broadcasting wireless transmissions comprising a tag identification (ID) of the tag (102-108; 200) from the communication interface ; detecting a movement of the tag (102-108; 200) with the movement detector ; receiving a confirmation signal that is sent responsive to the broadcast tag ID at the communication interface of the tag (102-108; 200) indicating that information for the tag ID that was broadcast has been received; and characterized in that , the operations further comprising: adjusting a timing between the repetitive broadcasts responsive to receiving the confirmation signal and responsive to a determination that the movement does not satisfy a movement threshold. repetitively broadcasting wireless transmissions comprising a tag identification (ID) of the tag (102-108; 200) from the communication interface ; detecting a movement of the tag (102-108; 200) with the movement detector ; receiving a confirmation signal that is sent responsive to the broadcast tag ID at the communication interface of the tag (102-108; 200) indicating that information for the tag ID that was broadcast has been received; and characterized in that , the operations further comprising: adjusting a timing between the repetitive broadcasts responsive to receiving the confirmation signal and responsive to a determination that the movement does not satisfy a movement threshold.
A method for detecting a T cell dependent bispecific antibody (TDB) in a composition, wherein the bispecific antibody comprises a target antigen binding fragment and a CD3 binding fragment, the method comprising contacting a population of T cells and target cells with the composition, wherein the T cells comprise nucleic acid encoding a reporter operably linked to a response element that is responsive to T cell activation, wherein the response element that is responsive to T cell activation is an NFκB promoter, optionally, wherein the response element that is responsive to T cell activation comprises T cell activation responsive elements from NFκB and wherein the target cells express the target antigen; wherein expression of the reporter indicates the presence of TDBs. contacting a population of T cells and target cells with the composition, wherein the T cells comprise nucleic acid encoding a reporter operably linked to a response element that is responsive to T cell activation, wherein the response element that is responsive to T cell activation is an NFκB promoter, optionally, wherein the response element that is responsive to T cell activation comprises T cell activation responsive elements from NFκB and wherein the target cells express the target antigen; wherein expression of the reporter indicates the presence of TDBs.