mhurhangee/ep-ind-claims huggingface dataset:
A vertical cavity surface emitting laser 'VCSEL' comprising: one or more quantum wells having InGaAs; two or more quantum well barriers having InGaP(As) bounding the one or more quantum well layers; characterized by one or more pure GaP transitional monolayers deposited between each quantum well layer and quantum well barrier. one or more quantum wells having InGaAs; two or more quantum well barriers having InGaP(As) bounding the one or more quantum well layers; characterized by one or more pure GaP transitional monolayers deposited between each quantum well layer and quantum well barrier.
A method for improving a quality of service of a communication between a source device and a destination device when a wireless link in the transmission path between the source device and the destination device degrades in quality, by forwarding frames on an alternate path between the source device and the destination device, comprising: selecting, by the source device, at least one forwarding device to be included on the alternate forwarding path; constructing a medium access control, MAC, forwarding frame to list in its body the MAC addresses of the selected at least one forwarding device and a payload data to be delivered to the destination device; transmitting the MAC forwarding frame to the selected forwarding device next to the source device; and, rerouting the communication by selecting a new forwarding path by the forwarding device, and updating accordingly the list of MAC addresses. selecting, by the source device, at least one forwarding device to be included on the alternate forwarding path; constructing a medium access control, MAC, forwarding frame to list in its body the MAC addresses of the selected at least one forwarding device and a payload data to be delivered to the destination device; transmitting the MAC forwarding frame to the selected forwarding device next to the source device; and, rerouting the communication by selecting a new forwarding path by the forwarding device, and updating accordingly the list of MAC addresses.
A method of forming a container of plastic material, the method comprising the steps of: providing a preform of the plastic material, the preform including an open end defined by a mouth, a closed end and a generally cylindrical body extending between the closed end and the mouth; placing the preform within a mold having surfaces defining a cavity corresponding in shape to the container; injecting an incompressible medium under pressure into the preform, the incompressible medium being an end product remaining in the molded container; expanding the preform in the cavity under the influence of the incompressible medium into contact with the surfaces defining the cavity and simultaneously forming and filling the container; during expanding of the preform, forcing portions of the plastic material into a series of recesses defined in the cavity surface, each of the recesses having a common depth; removing the container with the incompressible medium contained therein from the mold, the container including a series of raised dots corresponding to the series of recesses defined in the cavity surface characterized in that each of the raised dots has a nominal base diameter in the range of greater than 1.4 mm to less than 1.7 mm. providing a preform of the plastic material, the preform including an open end defined by a mouth, a closed end and a generally cylindrical body extending between the closed end and the mouth; placing the preform within a mold having surfaces defining a cavity corresponding in shape to the container; injecting an incompressible medium under pressure into the preform, the incompressible medium being an end product remaining in the molded container; expanding the preform in the cavity under the influence of the incompressible medium into contact with the surfaces defining the cavity and simultaneously forming and filling the container; during expanding of the preform, forcing portions of the plastic material into a series of recesses defined in the cavity surface, each of the recesses having a common depth; removing the container with the incompressible medium contained therein from the mold, the container including a series of raised dots corresponding to the series of recesses defined in the cavity surface characterized in that each of the raised dots has a nominal base diameter in the range of greater than 1.4 mm to less than 1.7 mm.
A flow control arrangement comprising: a housing defining one or more openings therein; a valve structure alignable and misalignable with the one or more openings in the housing; and one or more plugs, one each in one or more of the one or more openings, each plug being reducible by one or more of exposure to downhole fluids and applied dissolution fluids, characterised in that the one or more plugs are formed of a dissolvable high strength material including: a substantially continuous, cellular nanomatrix; a plurality of dispersed particles dispersed throughout the cellular nanomatrix, the dispersed particles including a particle core material that comprises Mg, Al, Zn or Mn, or a combination thereof, and a metallic coating layer disposed on each of the plurality of dispersed particles; and, a solid state bond layer extending throughout the cellular nanomatrix between the dispersed particles, the solid state bond layer formed by solid state interdiffusion between coating layers of adjacent particles. a housing defining one or more openings therein; a valve structure alignable and misalignable with the one or more openings in the housing; and one or more plugs, one each in one or more of the one or more openings, each plug being reducible by one or more of exposure to downhole fluids and applied dissolution fluids, characterised in that the one or more plugs are formed of a dissolvable high strength material including: a substantially continuous, cellular nanomatrix; a plurality of dispersed particles dispersed throughout the cellular nanomatrix, the dispersed particles including a particle core material that comprises Mg, Al, Zn or Mn, or a combination thereof, and a metallic coating layer disposed on each of the plurality of dispersed particles; and, a solid state bond layer extending throughout the cellular nanomatrix between the dispersed particles, the solid state bond layer formed by solid state interdiffusion between coating layers of adjacent particles. a substantially continuous, cellular nanomatrix; a plurality of dispersed particles dispersed throughout the cellular nanomatrix, the dispersed particles including a particle core material that comprises Mg, Al, Zn or Mn, or a combination thereof, and a metallic coating layer disposed on each of the plurality of dispersed particles; and, a solid state bond layer extending throughout the cellular nanomatrix between the dispersed particles, the solid state bond layer formed by solid state interdiffusion between coating layers of adjacent particles.
An apparatus for detecting a personal communication device in a vehicle, the apparatus comprising: one or more near field communication devices positioned about a driver zone of the vehicle for being wirelessly coupled to the personal communication device and the apparatus additionally comprising the personal communication device, wherein the personal communication device is configured to: (i) detect whether a tower hop is occurring, wherein a tower hop is detected if the personal communication device is moving from tower to tower to receive reception, (ii) upon detecting a tower hop, measure GPS-coordinates to determine whether the vehicle is moving above a predetermined vehicle speed, (iii) wirelessly transmit a first signal to the one or more near field communication devices in the vehicle if the vehicle is moving above the predetermined vehicle speed, (iv) determine whether that the personal communication device is positioned in the driver zone of the vehicle or not in response to a second signal from the one or more near field communication devices, v) operate in a hands free mode in response to determining that the personal communication device is positioned in the driver zone of the vehicle; vi) operating without restrictions in response to determining that the personal communication device is not positioned in the driver zone of the vehicle; and vii) execute a time delay while in the hands free mode and repeat steps iii) - vii) upon an expiration of the time delay. (i) detect whether a tower hop is occurring, wherein a tower hop is detected if the personal communication device is moving from tower to tower to receive reception, (ii) upon detecting a tower hop, measure GPS-coordinates to determine whether the vehicle is moving above a predetermined vehicle speed, (iii) wirelessly transmit a first signal to the one or more near field communication devices in the vehicle if the vehicle is moving above the predetermined vehicle speed, (iv) determine whether that the personal communication device is positioned in the driver zone of the vehicle or not in response to a second signal from the one or more near field communication devices, v) operate in a hands free mode in response to determining that the personal communication device is positioned in the driver zone of the vehicle; vi) operating without restrictions in response to determining that the personal communication device is not positioned in the driver zone of the vehicle; and vii) execute a time delay while in the hands free mode and repeat steps iii) - vii) upon an expiration of the time delay.
A cabin supply duct of an air conditioning and temperature control system, comprising: a first tubular body having an inlet, an outlet, an inner surface, an outer surface, a longitudinal axis, an inner shell surface located between the inner surface and outer surface at distance of about 0.953 ± 0.015 centimeters (0.375 ± 0.006 inches) away from the inner surface, and an acoustic liner located between the inner surface and the inner shell surface of the first tubular body; and a second tubular body having an inlet, an outlet, an inner surface, an outer surface, and a longitudinal axis, the inner surface of the second tubular body being fluidly connected to the inner surface of the first tubular body at the outlet of the second tubular body, the longitudinal axis of the first tubular body being perpendicular to the longitudinal axis of the second tubular body, wherein the acoustic liner is composed of a honeycomb structure, and the honeycomb structure is composed of a plurality of over-expanded hexagonal cells wherein the acoustic liner has a thickness of about 0.953 ± 0.015 centimeters (0.375 ± 0.006 inches), and the hexagonal cells are oriented perpendicular to the longitudinal axis of the first tubular body. a first tubular body having an inlet, an outlet, an inner surface, an outer surface, a longitudinal axis, an inner shell surface located between the inner surface and outer surface at distance of about 0.953 ± 0.015 centimeters (0.375 ± 0.006 inches) away from the inner surface, and an acoustic liner located between the inner surface and the inner shell surface of the first tubular body; and a second tubular body having an inlet, an outlet, an inner surface, an outer surface, and a longitudinal axis, the inner surface of the second tubular body being fluidly connected to the inner surface of the first tubular body at the outlet of the second tubular body, the longitudinal axis of the first tubular body being perpendicular to the longitudinal axis of the second tubular body, wherein the acoustic liner is composed of a honeycomb structure, and the honeycomb structure is composed of a plurality of over-expanded hexagonal cells wherein the acoustic liner has a thickness of about 0.953 ± 0.015 centimeters (0.375 ± 0.006 inches), and the hexagonal cells are oriented perpendicular to the longitudinal axis of the first tubular body.
A staircase provided with a stairlift, wherein the staircase comprises at least two sections, each of said at least two sections (21, 22, 23) extending at a different predetermined angle to the horizontal plane, and wherein the stairlift comprises a rail which is mounted along the staircase, wherein said rail extends at one common predetermined angle to the horizontal plane along said at least two sections (21, 22, 23), and a frame engaging said rail and arranged to move along said rail in a transport direction having a vertical component and a horizontal component, on which frame a carrier is mounted for carrying a person, and wherein the carrier is arranged to be moved horizontally, vertically or a combination thereof, relative to said frame in a vertical plane extending along the horizontal component of the transport direction while said frame is being moved along said rail in at least one of said sections (21, 22, 23), characterized in that the carrier is arranged to be moved relative to said frame by an actuator means which is programmed to move said carrier relative to said frame in a predetermined manner in dependence of the position of the frame along said rail and/or which actuator means is arranged to be operated in dependence of sensors which are arranged to measure distances between the frame and/or carrier and its environment.
A method of after-cooling of the bases of blown out containers, wherein after the transfer of the blow moulded containers from a blow moulding machine to a run-out star wheel which directly follows the blow moulding machine along a conveying direction of the containers a cooling of the bases of the containers is carried out by means of at least one apparatus for cooling the bases, characterized in that the cooling of the bases of the containers starts immediately during a time interval of at least 0.1 seconds and at most 2 seconds after a pressure release of the containers by the blow moulding machine, wherein the time interval starts immediately at the time of the handover from the blow moulding machine to the run-out star wheel following in the direction of transport to the blow moulding machine, wherein the bottom region of the respective blown out containers is being cooled by means of a further base cooling apparatus following in the transport direction of the blown out containers to the base cooling apparatus described here and wherein the apparatus for cooling the bases comprises at least one external face cooler which applies a cooling medium to an external face of bases of the blown out containers and the apparatus for cooling the bases cools the bases of the containers by means of air as the cooling medium, wherein the apparatus for cooling the base comprises at least one fan cooling means, therefore a cooling without a liquid cooling medium, wherein air, in particular air from the environment, is conveyed to the bases of the containers by means of the fan cooling means.
An apparatus (110, 2002) for wireless communications, comprising: at least one processor (440, 2004) coupled with a memory (442, 2012) and comprising: encoder circuitry (902, 2026, 2014) configured to encode a set of information bits using a systematic code to generate an encoded bit stream with information bits and parity bits, wherein the systematic code comprises a lifted low-density parity-check, LDPC, code; puncturing circuitry configured to puncture one or more information bits in the encoded bit stream according to a puncturing pattern prior to re-ordering; bit ordering circuitry (2028, 2016) configured to re-order bits in the encoded bit stream to distribute the information bits and the parity bits in the encoded bit stream, wherein the re-ordering comprises distributing an equal number of check nodes, in the lifted LDPC code, having a single edge connected to a punctured information bit in transmissions associated with different redundancy versions, RVs; and a transmitter (434, 908, 910, 2008) configured to transmit the re-ordered bits in accordance with a radio technology across a wireless channel via one or more antenna elements (432, 2010) situated proximate the transmitter. at least one processor (440, 2004) coupled with a memory (442, 2012) and comprising: encoder circuitry (902, 2026, 2014) configured to encode a set of information bits using a systematic code to generate an encoded bit stream with information bits and parity bits, wherein the systematic code comprises a lifted low-density parity-check, LDPC, code; puncturing circuitry configured to puncture one or more information bits in the encoded bit stream according to a puncturing pattern prior to re-ordering; bit ordering circuitry (2028, 2016) configured to re-order bits in the encoded bit stream to distribute the information bits and the parity bits in the encoded bit stream, wherein the re-ordering comprises distributing an equal number of check nodes, in the lifted LDPC code, having a single edge connected to a punctured information bit in transmissions associated with different redundancy versions, RVs; and encoder circuitry (902, 2026, 2014) configured to encode a set of information bits using a systematic code to generate an encoded bit stream with information bits and parity bits, wherein the systematic code comprises a lifted low-density parity-check, LDPC, code; puncturing circuitry configured to puncture one or more information bits in the encoded bit stream according to a puncturing pattern prior to re-ordering; bit ordering circuitry (2028, 2016) configured to re-order bits in the encoded bit stream to distribute the information bits and the parity bits in the encoded bit stream, wherein the re-ordering comprises distributing an equal number of check nodes, in the lifted LDPC code, having a single edge connected to a punctured information bit in transmissions associated with different redundancy versions, RVs; and a transmitter (434, 908, 910, 2008) configured to transmit the re-ordered bits in accordance with a radio technology across a wireless channel via one or more antenna elements (432, 2010) situated proximate the transmitter.
A lancing device, characterised by comprising: a housing with a length greater than a width; electronics positioned in an interior of the housing; a test strip aperture in the housing adapted to receive a body fluid test strip; a lancet aperture positioned in line with the test strip aperture; and a test memory that in operation provides for review of prior results. a housing with a length greater than a width; electronics positioned in an interior of the housing; a test strip aperture in the housing adapted to receive a body fluid test strip; a lancet aperture positioned in line with the test strip aperture; and a test memory that in operation provides for review of prior results.
A system for determining the operational status of a nozzle in an inkjet printhead having a piezoelectric actuator configured to cause the ejection of ink through the nozzle, the system comprising: a driving circuit configured to apply a driving signal to the piezoelectric actuator during a first time period; and a sensing circuit configured to measure the current within the piezoelectric actuator as a function of time during a second time period after the first time period wherein the driving signal is held constant for the duration of this second time period; wherein the system is configured to determine the operational status of the nozzle in dependence on the time taken for the measured current to reach a predetermined condition during the second time period or on the slope of the measured current as a function of time during the second time period. a driving circuit configured to apply a driving signal to the piezoelectric actuator during a first time period; and a sensing circuit configured to measure the current within the piezoelectric actuator as a function of time during a second time period after the first time period wherein the driving signal is held constant for the duration of this second time period;
A flow restriction device, comprising: a housing comprising a first end portion, a second end portion, an inner surface forming a cavity between the first and second end portions, a first opening through the first end portion, and a second opening through the second end portions; and an insert body (106, 107, 109) comprising a first end, a second end, a longitudinal axis extending through the first and second ends, and an inner surface forming a fluid passage extending between the first and second ends, the fluid passage comprising a first portion that extends in a first direction away from the longitudinal axis, a second portion that extends in a second direction toward the longitudinal axis, a third portion that extends in the first direction; wherein the insert body (106, 107, 109) is positioned within the cavity with a first opening of the fluid passage fluidly coupled with the first opening of the housing and a second opening of the fluid passage fluidly coupled with the second opening of the housing, characterized by a third opening of the fluid passage formed by a fourth portion of the fluid passage that extends through an outer surface of the insert body, and a fourth opening of the fluid passage formed by a fifth portion of the fluid passage that extends through the outer surface of the insert body, wherein the fourth opening is spaced apart from the third opening. a housing comprising a first end portion, a second end portion, an inner surface forming a cavity between the first and second end portions, a first opening through the first end portion, and a second opening through the second end portions; and an insert body (106, 107, 109) comprising a first end, a second end, a longitudinal axis extending through the first and second ends, and an inner surface forming a fluid passage extending between the first and second ends, the fluid passage comprising a first portion that extends in a first direction away from the longitudinal axis, a second portion that extends in a second direction toward the longitudinal axis, a third portion that extends in the first direction; wherein the insert body (106, 107, 109) is positioned within the cavity with a first opening of the fluid passage fluidly coupled with the first opening of the housing and a second opening of the fluid passage fluidly coupled with the second opening of the housing, characterized by a third opening of the fluid passage formed by a fourth portion of the fluid passage that extends through an outer surface of the insert body, and a fourth opening of the fluid passage formed by a fifth portion of the fluid passage that extends through the outer surface of the insert body, wherein the fourth opening is spaced apart from the third opening.