mhurhangee/patent-ind-claim-en huggingface dataset:
An encoding apparatus comprising: a packet processor structured to perform operations on an information packet sequence having a predetermined size, the operations comprising: (i) putting a plurality of information packets into one information packet; (ii) dividing each information packet into a plurality of sub-packets; and (iii) keeping a size of each information packet unchanged; an error correcting encoder structured to perform an error correcting encoding on the information packet sequence or the plurality of sub-packets processed by the packet processor, in accordance with a coding rate selected from a plurality of coding rates, to generate one or more parity packets; and an outputting section structured to output the information packet sequence or the plurality of sub-packets processed by the packet processor and the one or more parity packets as an error correcting codeword, characterized in that each packet and sub-packet, when the operation (ii) is performed, includes control information, wherein said control information includes information on the coding rate; and a processed unit of the error correcting encoding is a packet or a sub-packet. a packet processor structured to perform operations on an information packet sequence having a predetermined size, the operations comprising: (i) putting a plurality of information packets into one information packet; (ii) dividing each information packet into a plurality of sub-packets; and (iii) keeping a size of each information packet unchanged; (i) putting a plurality of information packets into one information packet; (ii) dividing each information packet into a plurality of sub-packets; and (iii) keeping a size of each information packet unchanged; an error correcting encoder structured to perform an error correcting encoding on the information packet sequence or the plurality of sub-packets processed by the packet processor, in accordance with a coding rate selected from a plurality of coding rates, to generate one or more parity packets; and an outputting section structured to output the information packet sequence or the plurality of sub-packets processed by the packet processor and the one or more parity packets as an error correcting codeword, characterized in that each packet and sub-packet, when the operation (ii) is performed, includes control information, wherein said control information includes information on the coding rate; and a processed unit of the error correcting encoding is a packet or a sub-packet.
A translucent zirconia sintered body which is obtainable by pressureless sintering, wherein the translucent zirconia sintered body is characterized by containing more than 4.0 mol% and at most 6.5 mol% of yttria, wherein alumina is contained as an additive and the content of alumina is less than 0.1 wt%, and the translucent zirconia sintered body having a relative density of at least 99.82%, a total light transmittance of at least 37% and less than 40% to light with a wavelength of 600 nm at a thickness of 1.0 mm, and a bending strength of at least 500 MPa.
A method of inspecting an air data probe for damage, degradation, or misalignment on a mounting surface, the method comprising: retrieving reference data for the air data probe from a database; capturing images of the air data probe via a camera ; generating dimensions from the captured images of the air data probe via a feature extractor , wherein the dimensions are generated from at least three points on the air data probe; analyzing with an alignment calculator the generated dimensions from the captured images of the air data probe and the reference data for the air data probe from the database to identify misalignment of the air data probe; analyzing with the alignment calculator the generated dimensions from the captured images of the air data probe and the reference data for the air data probe from the database to identify damage of the air data probe; generating, based on the identified misalignment of the air data probe, or the identified damage of the air data probe a maintenance recommendation for the air data probe; and outputting the maintenance recommendation. retrieving reference data for the air data probe from a database; capturing images of the air data probe via a camera ; generating dimensions from the captured images of the air data probe via a feature extractor , wherein the dimensions are generated from at least three points on the air data probe; analyzing with an alignment calculator the generated dimensions from the captured images of the air data probe and the reference data for the air data probe from the database to identify misalignment of the air data probe; analyzing with the alignment calculator the generated dimensions from the captured images of the air data probe and the reference data for the air data probe from the database to identify damage of the air data probe; generating, based on the identified misalignment of the air data probe, or the identified damage of the air data probe a maintenance recommendation for the air data probe; and outputting the maintenance recommendation.
An antibody conjugate or antibody fragment conjugate, wherein the antibody or antibody fragment binds a NKp46 and comprises (i) a heavy chain variable region comprising CDR 1, 2 and 3 as set forth in SEQ ID NOS: 5, 8 and 11, respectively and (ii) a light chain variable region comprising CDR 1, 2 and 3 as set forth in SEQ ID NOS: 22, 25 and 27, or a light chain variable region comprising CDR 1, 2 and 3 as set forth in SEQ ID NOS: 14; 17 and 19, respectively, wherein the CDRs are determined according to Kabat, and wherein said antibody is conjugated to a cytotoxic agent.
A method comprising: intercepting an encrypted connection going through a network device comprising a capture component ; determining, based on inspection of content of the intercepted encrypted connection, a request for access to a file in the intercepted encrypted connection; determining, by the network device based on a policy that a decision on the requested access to the file is needed from an external device; sending from the capture component to the external device a request for a decision on the encrypted connection; receiving a decision in a response to the request from the external device ; and controlling the requested access to the file based on the decision in the response. intercepting an encrypted connection going through a network device comprising a capture component ; determining, based on inspection of content of the intercepted encrypted connection, a request for access to a file in the intercepted encrypted connection; determining, by the network device based on a policy that a decision on the requested access to the file is needed from an external device; sending from the capture component to the external device a request for a decision on the encrypted connection; receiving a decision in a response to the request from the external device ; and controlling the requested access to the file based on the decision in the response.
A portable ventilator configured to deliver gas to a patient for ventilation of the patient, comprising: a housing ; a source of pressurized gas ; a pre-fill vessel within the housing; a patient vessel within the housing; a source line ; an inhalation line configured to deliver ventilation gas to the patient; one or more valves communicating with the gas source via the source line , communicating with the pre-fill and patient vessels, and communicating with the inhalation line ; and a controller coupled to the one or more valves for selectively directing the one or more valves between: a delivery configuration where ventilation gas is delivered from the patient vessel to the patient via the inhalation line and pressurized gas is delivered from the gas source to the pre-fill vessel ; and a storage configuration where pressurized gas is delivered from the gas source and the pre-fill vessel into the patient vessel to store pressurized gas in the patient vessel . a housing ; a source of pressurized gas ; a pre-fill vessel within the housing; a patient vessel within the housing; a source line ; an inhalation line configured to deliver ventilation gas to the patient; one or more valves communicating with the gas source via the source line , communicating with the pre-fill and patient vessels, and communicating with the inhalation line ; and a controller coupled to the one or more valves for selectively directing the one or more valves between: a delivery configuration where ventilation gas is delivered from the patient vessel to the patient via the inhalation line and pressurized gas is delivered from the gas source to the pre-fill vessel ; and a storage configuration where pressurized gas is delivered from the gas source and the pre-fill vessel into the patient vessel to store pressurized gas in the patient vessel . a delivery configuration where ventilation gas is delivered from the patient vessel to the patient via the inhalation line and pressurized gas is delivered from the gas source to the pre-fill vessel ; and a storage configuration where pressurized gas is delivered from the gas source and the pre-fill vessel into the patient vessel to store pressurized gas in the patient vessel .
A method by a first user equipment, UE, for selecting a radio resource for transmitting a sidelink Vehicle-to-X, V2x packet, the method comprising: obtaining a basic period value related to expected timing of transmissions by a second UE ; obtaining a sub-period value that is less than the basic period value; repeatedly monitoring radio resources that occur every time period determined based on the basic period value, for a packet or booking message that is transmitted by the second UE and indicates that the second UE will potentially transmit a next packet using a radio resource and timing, wherein the monitoring is restricted to a timeframe determined based on the sub-period value within each occurrence of the time period determined based on the basic period value, wherein the radio resources that are monitored are among resources which are used by other UEs for V2x communications; and responsive to the monitoring identifying the packet or booking message, selecting a radio resource for use in transmitting a packet based on the radio resource and timing that is potentially to be used by the second UE to transmit the next packet. obtaining a basic period value related to expected timing of transmissions by a second UE ; obtaining a sub-period value that is less than the basic period value; repeatedly monitoring radio resources that occur every time period determined based on the basic period value, for a packet or booking message that is transmitted by the second UE and indicates that the second UE will potentially transmit a next packet using a radio resource and timing, wherein the monitoring is restricted to a timeframe determined based on the sub-period value within each occurrence of the time period determined based on the basic period value, wherein the radio resources that are monitored are among resources which are used by other UEs for V2x communications; and responsive to the monitoring identifying the packet or booking message, selecting a radio resource for use in transmitting a packet based on the radio resource and timing that is potentially to be used by the second UE to transmit the next packet.
A flash point detector configured to determine a flash point of a substance being tested using an open cup method, said flash point detector having a source of power and a source of gas , said flash point detector including: a stand having an upper surface with an opening in said upper surface ; a test cup located in said opening; a heater connected to said source of power and located below said test cup said heater adapted to heat said test cup and said substance contained therein; insulation to thermally insulate said test cup and said heater from said stand; a test cup holder adjacent said test cup and adapted to pick up said test cup when hot; an igniter connected to said gas source adapted to generate an ignitor flame immediately above said test cup ; and the flash point detector being characterized by : an ultraviolet (UV) detector located inside a chamber of a collimator located on said upper surface beside said opening; said ignitor flame adapted to swing periodically in an arc immediately above said test cup ; said collimator adapted to restrict a monitoring area of said UV detector to a wedge-shaped area immediately above said test cup ; said arc being adjacent to, but not overlapping, said wedge-shaped area; and said UV detector adapted to detect when said substance reaches its flash point. a stand having an upper surface with an opening in said upper surface ; a test cup located in said opening; a heater connected to said source of power and located below said test cup said heater adapted to heat said test cup and said substance contained therein; insulation to thermally insulate said test cup and said heater from said stand; a test cup holder adjacent said test cup and adapted to pick up said test cup when hot; an igniter connected to said gas source adapted to generate an ignitor flame immediately above said test cup ; and the flash point detector being characterized by : an ultraviolet (UV) detector located inside a chamber of a collimator located on said upper surface beside said opening; said ignitor flame adapted to swing periodically in an arc immediately above said test cup ; said collimator adapted to restrict a monitoring area of said UV detector to a wedge-shaped area immediately above said test cup ; said arc being adjacent to, but not overlapping, said wedge-shaped area; and said UV detector adapted to detect when said substance reaches its flash point. an ultraviolet (UV) detector located inside a chamber of a collimator located on said upper surface beside said opening; said ignitor flame adapted to swing periodically in an arc immediately above said test cup ; said collimator adapted to restrict a monitoring area of said UV detector to a wedge-shaped area immediately above said test cup ; said arc being adjacent to, but not overlapping, said wedge-shaped area; and said UV detector adapted to detect when said substance reaches its flash point.
A filter device package comprising: a first dielectric layer ; an acoustic wave filter device attached to the first dielectric layer , the acoustic wave filter device comprising an active area and input/output (I/O) pads ; an adhesive positioned between the first dielectric layer and the acoustic wave filter device to secure the first dielectric layer to the acoustic wave filter device ; a plurality of vias formed through the first dielectric layer and the adhesive to the I/O pads of the acoustic wave filter device ; and metal interconnects formed in the plurality of vias and mechanically and electrically coupled to the I/O pads of the acoustic wave filter device to form electrical interconnections thereto; wherein an air cavity is formed in the adhesive between the acoustic wave filter device and the first dielectric layer , in a location adjacent the active area of the acoustic wave filter device characterized by further comprising a plurality of additional dielectric layers stacked onto the first dielectric layer and the adhesive , the plurality of additional dielectric layers being stacked so as to cover back and side surfaces of the acoustic wave filter device and embed the acoustic wave filter device within the filter device package . a first dielectric layer ; an acoustic wave filter device attached to the first dielectric layer , the acoustic wave filter device comprising an active area and input/output (I/O) pads ; an adhesive positioned between the first dielectric layer and the acoustic wave filter device to secure the first dielectric layer to the acoustic wave filter device ; a plurality of vias formed through the first dielectric layer and the adhesive to the I/O pads of the acoustic wave filter device ; and metal interconnects formed in the plurality of vias and mechanically and electrically coupled to the I/O pads of the acoustic wave filter device to form electrical interconnections thereto; wherein an air cavity is formed in the adhesive between the acoustic wave filter device and the first dielectric layer , in a location adjacent the active area of the acoustic wave filter device characterized by further comprising a plurality of additional dielectric layers stacked onto the first dielectric layer and the adhesive , the plurality of additional dielectric layers being stacked so as to cover back and side surfaces of the acoustic wave filter device and embed the acoustic wave filter device within the filter device package .
Heat transfer system, comprising a) a refrigeration circuit comprising a first heat transfer fluid, a compressor, a condenser, an expansion device and an outdoor heat exchanger; b) a cooling circuit comprising a second heat transfer fluid, which comprises or consists of a phase change material (PCM), a pump for circulating the second heat transfer fluid around the cooling circuit, a heat exchanger (PHEX) for transferring heat from the second heat transfer fluid to the first heat transfer fluid, and at least one indoor heat exchanger (FCU) for transferring heat from a space to be cooled to the second heat transfer fluid; c) in the cooling circuit, a sensor system (R) comprising or consisting of a temperature sensor and an electrical resistance sensor, wherein the temperature sensor and the electrical resistance sensor are realized as two separate sensors or as one combined temperature-and-electrical-resistance sensor; d) a controller (PI) configured to obtain temperature information (T me ) and electrical resistance information (R me ) from the sensor system (R); characterized in that the controller (PI) is configured to determine a combined state of phase value (SOP flow ) based on the obtained temperature information (T me ) and obtained electrical resistance information (R me ), and control the operation of the heat transfer system based on the determined combined state of phase value (SOP flow ), wherein the term "state of phase" refers to the quality of the heat transfer fluid regarding the amount of crystallisation/solidification of its phase change material (PCM). a) a refrigeration circuit comprising a first heat transfer fluid, a compressor, a condenser, an expansion device and an outdoor heat exchanger; b) a cooling circuit comprising a second heat transfer fluid, which comprises or consists of a phase change material (PCM), a pump for circulating the second heat transfer fluid around the cooling circuit, a heat exchanger (PHEX) for transferring heat from the second heat transfer fluid to the first heat transfer fluid, and at least one indoor heat exchanger (FCU) for transferring heat from a space to be cooled to the second heat transfer fluid; c) in the cooling circuit, a sensor system (R) comprising or consisting of a temperature sensor and an electrical resistance sensor, wherein the temperature sensor and the electrical resistance sensor are realized as two separate sensors or as one combined temperature-and-electrical-resistance sensor; d) a controller (PI) configured to obtain temperature information (T me ) and electrical resistance information (R me ) from the sensor system (R); characterized in that the controller (PI) is configured to determine a combined state of phase value (SOP flow ) based on the obtained temperature information (T me ) and obtained electrical resistance information (R me ), and control the operation of the heat transfer system based on the determined combined state of phase value (SOP flow ), wherein the term "state of phase" refers to the quality of the heat transfer fluid regarding the amount of crystallisation/solidification of its phase change material (PCM).
An integrated circuit, comprising: a substrate comprising a semiconductor material; an interconnect region disposed above the substrate , comprising: a dielectric layer stack ; contacts disposed in the dielectric layer stack ; interconnects disposed in the dielectric layer stack , wherein a plurality of the interconnects are disposed in a top interconnect level located in the interconnect region , proximate to a top surface of the interconnect region , opposite from a boundary between the substrate and the interconnect region ; and vias disposed in the dielectric layer stack ; a heat-generating component disposed in the substrate and the interconnect region , proximate to the boundary between the substrate and the interconnect region ; and a thermal routing structure disposed above the top interconnect level and extending over the heat-generating component , the thermal routing structure including a cohered nanoparticle film comprising nanoparticles, in which adjacent nanoparticles cohere to each other, wherein the cohered nanoparticle film is substantially free of an organic binder material, and wherein a thermal conductivity of the thermal routing structure is higher than a thermal conductivity of dielectric material contacting the thermal routing structure . a substrate comprising a semiconductor material; an interconnect region disposed above the substrate , comprising: a dielectric layer stack ; contacts disposed in the dielectric layer stack ; interconnects disposed in the dielectric layer stack , wherein a plurality of the interconnects are disposed in a top interconnect level located in the interconnect region , proximate to a top surface of the interconnect region , opposite from a boundary between the substrate and the interconnect region ; and vias disposed in the dielectric layer stack ; a heat-generating component disposed in the substrate and the interconnect region , proximate to the boundary between the substrate and the interconnect region ; and a thermal routing structure disposed above the top interconnect level and extending over the heat-generating component , the thermal routing structure including a cohered nanoparticle film comprising nanoparticles, in which adjacent nanoparticles cohere to each other, wherein the cohered nanoparticle film is substantially free of an organic binder material, and wherein a thermal conductivity of the thermal routing structure is higher than a thermal conductivity of dielectric material contacting the thermal routing structure .
A rotatable dental polishing instrument comprising - a central region , and - a plurality of polishing fingers which are arranged at the central region and projecting from the central region , - wherein the polishing fingers are flexibly formed, - wherein a thickened portion is formed on at least one polishing finger at an end region of the polishing finger, - the thickened portion being arranged exclusively on one side of the polishing finger , and - wherein the plurality of polishing fingers protrude from the central region in a plane perpendicular to the rotational axis of the polishing instrument. - a central region , and - a plurality of polishing fingers which are arranged at the central region and projecting from the central region , - wherein the polishing fingers are flexibly formed, - wherein a thickened portion is formed on at least one polishing finger at an end region of the polishing finger, - the thickened portion being arranged exclusively on one side of the polishing finger , and - wherein the plurality of polishing fingers protrude from the central region in a plane perpendicular to the rotational axis of the polishing instrument.