mhurhangee/patent-ind-claim-en huggingface dataset:
A resin composition comprising a polyarylene sulfide; and a silane-modified epoxy resin of Formula 1, wherein the amount of outgassing is 300 ppm or less: wherein R 1 is hydrogen or C 1-6 alkyl; R 2 is selected from the group consisting of epoxy, amino, mercapto, vinyl, and combinations thereof; and n is an integer of 1 to 100. R 1 is hydrogen or C 1-6 alkyl; R 2 is selected from the group consisting of epoxy, amino, mercapto, vinyl, and combinations thereof; and n is an integer of 1 to 100.
Tunnel luminaire consisting of a luminaire housing extending along a longitudinal axis (LA) and a housing cover which is at least transparent in sections and can be connected to the luminaire housing , which enclose a housing interior , in which a plurality of lighting means in the form of light-emitting diodes and at least one associated control unit connected to the lighting means for controlling the lighting means are accommodated in the housing interior , in which at least one flat, plate-shaped carrier module extending along the longitudinal axis (LA) having an upper and lower side (10.1, 10.2) is exchangeably accommodated in the housing interior , wherein the lighting means in the form of light-emitting diodes are arranged on its upper side (10.1) facing the housing cover and are thermally conductively connected to the carrier module for cooling purposes, characterized in that the flat, plate-shaped carrier module extending along the longitudinal axis (LA) is designed in the form of a carrier profile plate made of aluminum or an aluminum alloy, wherein the carrier module is arranged within the housing interior at a distance from the housing cover and from a housing base section (2.1) of the luminaire housing and is connected to the luminaire housing essentially thermally separated from the luminaire housing via support-like holding elements, and in that at least one lens system for beam shaping is associated with the lighting means , wherein the carrier module including the lighting means and the at least one lens system forms an exchangeable assembly.
A wiring substrate comprising: a heat sink ; a first insulating layer on the heat sink; a wiring pattern on the first insulating layer, wherein the wiring pattern is configured to mount a light emitting element thereon; a second insulating layer on the first insulating layer such that the wiring pattern is exposed from the second insulating layer; and a first reflective layer on the second insulating layer , wherein the wiring pattern comprises: an upper surface; a lower surface opposite to the upper surface, the lower surface facing the first insulating layer ; and a side surface between the upper surface and the lower surface, characterized in that the second insulating layer contacts a portion of the side surface of the wiring pattern, and an upper surface of the second insulating layer is lower than the upper surface of the wiring pattern. a heat sink ; a first insulating layer on the heat sink; a wiring pattern on the first insulating layer, wherein the wiring pattern is configured to mount a light emitting element thereon; a second insulating layer on the first insulating layer such that the wiring pattern is exposed from the second insulating layer; and a first reflective layer on the second insulating layer , wherein the wiring pattern comprises: an upper surface; a lower surface opposite to the upper surface, the lower surface facing the first insulating layer ; and a side surface between the upper surface and the lower surface, characterized in that an upper surface; a lower surface opposite to the upper surface, the lower surface facing the first insulating layer ; and a side surface between the upper surface and the lower surface, characterized in that the second insulating layer contacts a portion of the side surface of the wiring pattern, and an upper surface of the second insulating layer is lower than the upper surface of the wiring pattern.
A method of performing communication, by a network exposure function, NEF , in a wireless communication system, the method comprising: receiving a message for connection request including information regarding non-internet protocol data delivery, NIDD, configuration for a user equipment, UE, from a session management function, SMF, the method characterized by in case that no NIDD configuration procedure for the UE between the NEF and an application function, AF, ) is previously performed, transmitting a message for triggering the NIDD configuration for the UE to the AF , based on the information regarding the NIDD configuration for the UE included in the message for the connection request; receiving a message for requesting the NIDD configuration for the UE from the AF , as a response to the message for triggering the NIDD configuration for the UE; creating NEF PDU session context based on the received message for requesting the NIDD configuration for the UE; and transmitting a message for connection response to the SMF based on the received message for requesting the NIDD configuration for the UE, as a response to the message for the connection request. receiving a message for connection request including information regarding non-internet protocol data delivery, NIDD, configuration for a user equipment, UE, from a session management function, SMF, the method characterized by in case that no NIDD configuration procedure for the UE between the NEF and an application function, AF, ) is previously performed, transmitting a message for triggering the NIDD configuration for the UE to the AF , based on the information regarding the NIDD configuration for the UE included in the message for the connection request; receiving a message for requesting the NIDD configuration for the UE from the AF , as a response to the message for triggering the NIDD configuration for the UE; creating NEF PDU session context based on the received message for requesting the NIDD configuration for the UE; and transmitting a message for connection response to the SMF based on the received message for requesting the NIDD configuration for the UE, as a response to the message for the connection request.
An electrically driven vehicle equipped with a battery usable for running, comprising a power generation unit of engine driven type for charging the battery, at least an engine of the power generation unit being detachably mounted to the electrically driven vehicle ; a source for running configured to be supplied with power from the battery ; a key switch as vehicle drive operation means for making at the same time an operation request to the power generation unit and an operation request to the source for running ; operation request determination means for determining whether the operation request to the power generation unit is made; stop means for bringing the power generation unit to a stopped state in a case where there is no operation request to the power generation unit , as well as when the power generation unit is installed in or removed from the electrically driven vehicle, the vehicle being characterized in that said stop means comprise: electromagnetic function generation means that faces the power generation unit installed in the vehicle , for generating an electromagnetic function in a case where no operation request to the source for running is made, and configured so as to be switched off when the key switch is switched on ; and a contact positioned where the power generation unit in the installed state faces the electromagnetic function generating means , wherein the operation of the power generation unit is permitted when the contact is turned on and inhibited when the contact is off, and wherein the contact is turned on when the electromagnetic function generation means is off and turned off when the electromagnetic function generation means is on. electromagnetic function generation means that faces the power generation unit installed in the vehicle , for generating an electromagnetic function in a case where no operation request to the source for running is made, and configured so as to be switched off when the key switch is switched on ; and a contact positioned where the power generation unit in the installed state faces the electromagnetic function generating means , wherein the operation of the power generation unit is permitted when the contact is turned on and inhibited when the contact is off, and wherein the contact is turned on when the electromagnetic function generation means is off and turned off when the electromagnetic function generation means is on.
A rotary compressor system comprising: a compressor housing comprising: a compressor motor ; a suction side ; a discharge side ; a compression chamber disposed between the suction side and the discharge side ; characterised in that an overload-protection switch electrically coupled in series with the compressor motor and adapted to cut power to the compressor motor responsive to an overload event; a solenoid valve comprising a valve fluidly coupled between the compression chamber and a location upstream of the suction side and a drive coil ; wherein interruption of electrical current to the compressor motor interrupts electrical current to the drive coil thereby opening the valve to equalize pressure between the suction side and the discharge side . a compressor housing comprising: a compressor motor ; a suction side ; a discharge side ; a compression chamber disposed between the suction side and the discharge side ; a compressor motor ; a suction side ; a discharge side ; a compression chamber disposed between the suction side and the discharge side ; characterised in that an overload-protection switch electrically coupled in series with the compressor motor and adapted to cut power to the compressor motor responsive to an overload event; a solenoid valve comprising a valve fluidly coupled between the compression chamber and a location upstream of the suction side and a drive coil ; wherein interruption of electrical current to the compressor motor interrupts electrical current to the drive coil thereby opening the valve to equalize pressure between the suction side and the discharge side .
A plunger pump comprising: a cylinder having a cylinder chamber , and a first through hole and a second through hole that open from an inner circumferential surface toward an outer circumferential surface of the cylinder chamber ; and a plunger (11, 11', 11") inserted in the cylinder chamber and configured to make a reciprocating motion with respect to the cylinder chamber , wherein an inner circumferential portion of the cylinder has an inner circumferential surface, and a helical first groove portion on the inner circumferential surface, the helical first groove portion being configured to communicate with at least one of the first through hole and the second through hole , the inner circumferential surface of the cylinder has a second groove portion communicating with the first groove portion and extending over an entire circumference in a circumferential direction of the cylinder , or an outer circumferential surface of the plunger has a second groove portion configured to communicate with the first groove portion and extending over an entire circumference in a circumferential direction of the cylinder , and an inner circumferential surface of the second groove portion comprises a first side surface and a second side surface opposite to each other, and a bottom surface connecting the first side surface and the second side surface to each other, and a maximum grain size of crystal grains on the first side surface and the second side surface is smaller than a maximum grain size of crystal grains on the bottom surface. a cylinder having a cylinder chamber , and a first through hole and a second through hole that open from an inner circumferential surface toward an outer circumferential surface of the cylinder chamber ; and a plunger (11, 11', 11") inserted in the cylinder chamber and configured to make a reciprocating motion with respect to the cylinder chamber , wherein an inner circumferential portion of the cylinder has an inner circumferential surface, and a helical first groove portion on the inner circumferential surface, the helical first groove portion being configured to communicate with at least one of the first through hole and the second through hole , the inner circumferential surface of the cylinder has a second groove portion communicating with the first groove portion and extending over an entire circumference in a circumferential direction of the cylinder , or an outer circumferential surface of the plunger has a second groove portion configured to communicate with the first groove portion and extending over an entire circumference in a circumferential direction of the cylinder , and an inner circumferential surface of the second groove portion comprises a first side surface and a second side surface opposite to each other, and a bottom surface connecting the first side surface and the second side surface to each other, and a maximum grain size of crystal grains on the first side surface and the second side surface is smaller than a maximum grain size of crystal grains on the bottom surface.
A method for wireless communication, comprising: receiving , within a subframe, a first portion of a downlink control region scheduling at least a first data unit to be received in the subframe, wherein the subframe comprises at least two transmission time intervals, TTIs, and wherein each subframe comprises the downlink control region, a data region, and an uplink control region; receiving the first data unit in a first TTI of the data region; receiving a second data unit in a second TTI of the data region; and separately acknowledging receipt of the first and second data units, wherein the first data unit is acknowledged in the uplink control region, wherein the separately acknowledging comprises transmitting acknowledgments/negative acknowledgments, ACKs/NACKs, for the first and second data units in different subframes. receiving , within a subframe, a first portion of a downlink control region scheduling at least a first data unit to be received in the subframe, wherein the subframe comprises at least two transmission time intervals, TTIs, and wherein each subframe comprises the downlink control region, a data region, and an uplink control region; receiving the first data unit in a first TTI of the data region; receiving a second data unit in a second TTI of the data region; and separately acknowledging receipt of the first and second data units, wherein the first data unit is acknowledged in the uplink control region, wherein the separately acknowledging comprises transmitting acknowledgments/negative acknowledgments, ACKs/NACKs, for the first and second data units in different subframes.
A backplane comprising - a first module connector configured to receive a first printed circuit board module ; and - a second module connector configured to receive a second printed circuit board module ; wherein the first module connector includes a first connector portion (23d-26d), the second module connector includes a second connector portion (23e-26e), the first connector portion (23d-26d) being connected to the second connector portion (23e-26e) through a first backplane bus; characterized in that the backplane further comprises - a switch ; - a first port connectable to the switch ; - a second port connectable to the switch ; - a network interface connectable with a network; and - the switch configured to interconnect the first module connector , the second module connector and the network interface; wherein the first backplane bus is configured to allow information to be directly communicated between the first printed circuit board module and the second printed circuit board module without being routed via the switch or the network; wherein the first module connector includes a third connector portion connected to the first port ; and wherein the second module connector includes a fourth connector portion connected to the second port . - a first module connector configured to receive a first printed circuit board module ; and - a second module connector configured to receive a second printed circuit board module ; - a switch ; - a first port connectable to the switch ; - a second port connectable to the switch ; - a network interface connectable with a network; and - the switch configured to interconnect the first module connector , the second module connector and the network interface;
A method for solvent vapor smoothing of a surface of a plastic product, the method comprising the steps of: - placing the plastic product to be smoothed in a closed chamber comprising heated walls (112-116) and a heated evaporator for solvent; - determining process parameters, comprising an expected dew point of the solvent and an expected boiling temperature of the solvent; - heating at least one wall (112-116) of the chamber to a first temperature and heating the evaporator to a second temperature, wherein the first temperature is higher than the expected dew point temperature of the solvent and wherein the second temperature is higher than the expected boiling temperature of the solvent for a current pressure within the chamber; - introducing a solvent to the evaporator ; - allowing the solvent vapors to condense on the outer surface of the product; and - collecting solvent vapors from the chamber . - placing the plastic product to be smoothed in a closed chamber comprising heated walls (112-116) and a heated evaporator for solvent; - determining process parameters, comprising an expected dew point of the solvent and an expected boiling temperature of the solvent; - heating at least one wall (112-116) of the chamber to a first temperature and heating the evaporator to a second temperature, wherein the first temperature is higher than the expected dew point temperature of the solvent and wherein the second temperature is higher than the expected boiling temperature of the solvent for a current pressure within the chamber; - introducing a solvent to the evaporator ; - allowing the solvent vapors to condense on the outer surface of the product; and - collecting solvent vapors from the chamber .
A surface-coated boron nitride sintered body tool comprising: a cubic boron nitride sintered body; and a coating film formed thereon, the coating film including an A layer and a C layer, the A layer being formed of Ti 1-xa Ma xa C 1-ya N ya (where Ma is one or more of Cr, Nb and W; xa is 0 ≤ xa ≤ 0.7; and ya is 0 ≤ ya ≤ 1), the C layer being formed of Al 1-(xc+yc) Cr xc Mc yc N (where Mc is one or more of Ti, V and Si; xc is 0.2 ≤ xc ≤ 0.8; yc is 0 ≤ yc ≤ 0.6; and xc + yc is 0.2 ≤ xc + yc ≤ 0.8), the A layer forming an outermost surface of the coating film or being formed between the outermost surface of the coating film and the C layer, and a distance between the outermost surface of the coating film and an upper surface of the C layer closest to the outermost surface being 0.1 μm or more and 1.0 μm or less, wherein the coating film further includes a B layer between the A layer and the C layer, and the B layer contains one or more compounds formed of: one or more elements selected from the group consisting of Al, Cr and Ti; and N, and the B layer includes a multilayer structure formed by alternately laminating one or more B1 layers each formed of TiN and one or more B2 layers each formed of AlCrN.
CellDrum electrode arrangement for measuring mechanical stress, a CellDrum being a membrane covered by biological layer, wherein when the biological layer is subjected to certain agents to be tested cells of the biological layer are stressed thereby exerting forces to the membrane which thereby is induced to deform / bend, the CellDrum electrode arrangement comprising • a mechanical holder and • a non-conductive and deformable membrane , whereby the membrane is at least partially fixed at its circumference to the mechanical holder for that it is kept in place when the membrane may bend and/or stretch due to forces acting on the membrane , • the mechanical holder and the membrane being arranged such that they form a container, • whereby an adhered- cell-membrane compound layer of biological material is provided relative to the membrane , whereby the cell-membrane compound layer in response to stimulation by an agent is adapted to exert mechanical stress to the membrane such that the membrane bending stage changes, • whereby the cell-membrane compound layer of biological material comprises cardiomyocytes, • whereby the agent is a chemical compound or a pharmacological substance, • whereby the container is arranged for being filled with an electrolyte, • whereby the CellDrum electrode arrangement comprises an electric contact , which is arranged allowing to contact said electrolyte when filled into the container, • whereby within a predefined geometry to the mechanical holder an electrode is arranged, whereby the electrode is electrically insulated with respect to the electric contact as well as said electrolyte, • means for measuring mechanical stress due to an agent as a change in capacitance of the capacitor formed by said membrane and the electrode . • a mechanical holder and • a non-conductive and deformable membrane , whereby the membrane is at least partially fixed at its circumference to the mechanical holder for that it is kept in place when the membrane may bend and/or stretch due to forces acting on the membrane , • the mechanical holder and the membrane being arranged such that they form a container, • whereby an adhered- cell-membrane compound layer of biological material is provided relative to the membrane , whereby the cell-membrane compound layer in response to stimulation by an agent is adapted to exert mechanical stress to the membrane such that the membrane bending stage changes, • whereby the cell-membrane compound layer of biological material comprises cardiomyocytes, • whereby the agent is a chemical compound or a pharmacological substance, • whereby the container is arranged for being filled with an electrolyte, • whereby the CellDrum electrode arrangement comprises an electric contact , which is arranged allowing to contact said electrolyte when filled into the container, • whereby within a predefined geometry to the mechanical holder an electrode is arranged, whereby the electrode is electrically insulated with respect to the electric contact as well as said electrolyte, • means for measuring mechanical stress due to an agent as a change in capacitance of the capacitor formed by said membrane and the electrode .
A thermal inkjet printhead stack with an amorphous thin metal resistor , comprising: an insulated substrate ; a resistor applied to the insulated substrate , the resistor comprising an amorphous thin metal film of: 20 atomic % to 70 atomic % of a metalloid, wherein the metalloid is silicon, 20 atomic % to 70 atomic % of a first metal, wherein the first metal is tantalum, and 20 atomic % to 70 atomic % of a second metal, wherein the second metal is molybdenum, tungsten, or platinum, wherein the metalloid, the first metal, and the second metal account for at least 70 atomic % of the amorphous thin metal film. an insulated substrate ; a resistor applied to the insulated substrate , the resistor comprising an amorphous thin metal film of: 20 atomic % to 70 atomic % of a metalloid, wherein the metalloid is silicon, 20 atomic % to 70 atomic % of a first metal, wherein the first metal is tantalum, and 20 atomic % to 70 atomic % of a second metal, wherein the second metal is molybdenum, tungsten, or platinum, wherein the metalloid, the first metal, and the second metal account for at least 70 atomic % of the amorphous thin metal film. 20 atomic % to 70 atomic % of a metalloid, wherein the metalloid is silicon, 20 atomic % to 70 atomic % of a first metal, wherein the first metal is tantalum, and 20 atomic % to 70 atomic % of a second metal, wherein the second metal is molybdenum, tungsten, or platinum, wherein the metalloid, the first metal, and the second metal account for at least 70 atomic % of the amorphous thin metal film.