mhurhangee/patent-ind-claim-en huggingface dataset:
A bimodal linear medium density polyethylene composition comprising a lower molecular weight (LMW) polyethylene component and a higher molecular weight (HMW) polyethylene component, wherein each of the LMW and HMW polyethylene components comprises ethylene-derived monomeric units and (C 3 -C 20 )alpha-olefin-derived comonomeric units; and wherein the bimodal linear medium density polyethylene composition is characterized by each of limitations (a) to (e): (a) a resolved bimodality showing in a chromatogram of gel permeation chromatography (GPC) of the bimodal linear medium density polyethylene composition, wherein the chromatogram shows a peak representing the HMW polyethylene component, a peak representing the LMW polyethylene component, and a resolved bimodal molecular weight distribution characterized by a local minimum in a range of Log(molecular weight) ("Log(MW)") 1.5 to 5.0 between the peak representing the HMW polyethylene component and the peak representing the LMW polyethylene component, measured according to Bimodality Test Method as described herein; (b) a molecular mass dispersity (M w /M n ), Ð M , from 5 to 30.1, measured according to Gel Permeation Chromatography (GPC) Test Method as described herein; (c) no measurable amount of long chain branching per 1,000 carbon atoms ("LCB Index"), measured according to LCB Test Method as described herein; (d) a density from 0.930 to 0.950 gram per cubic centimeter (g/cm 3 ), measured according to ASTM D792-13 Method B; and (e) a molecular mass dispersity (M w /M n ), Ð M , of the LMW polyethylene components of from > 2.0 to < 3.0, measured according to the GPC Test Method as described herein after deconvoluting the LMW and HMW polyethylene components of the bimodal linear medium density polyethylene composition according to Deconvoluting Test Method as described herein.
A measurement system for a construction machine , in particular a road construction machine , comprising: a temperature measuring device configured to determine a first surface temperature for a first area (22_1) of a measuring field of the temperature measuring device as well as a second surface temperature for a second area (22_2) of the measuring field of the temperature measuring device , the temperature measuring device being directed to a reference surface , in relation to which the construction machine is moving, and the measuring field of the temperature measuring device being shifted as a function of a movement of the construction machine along the reference surface ; and an evaluation device configured to determine a movement parameter by means of a shift in a first temperature zone (22_1, 22_1'), defined for a first point in time (t1) by the first surface temperature within the first area (22_1), in relation to the first and/or second area(s) (22_2) or in relation to the measuring field of the temperature measuring device . a temperature measuring device configured to determine a first surface temperature for a first area (22_1) of a measuring field of the temperature measuring device as well as a second surface temperature for a second area (22_2) of the measuring field of the temperature measuring device , the temperature measuring device being directed to a reference surface , in relation to which the construction machine is moving, and the measuring field of the temperature measuring device being shifted as a function of a movement of the construction machine along the reference surface ; and an evaluation device configured to determine a movement parameter by means of a shift in a first temperature zone (22_1, 22_1'), defined for a first point in time (t1) by the first surface temperature within the first area (22_1), in relation to the first and/or second area(s) (22_2) or in relation to the measuring field of the temperature measuring device .
A water-dilutable antimicrobial composition comprising: a first acid being selected from the group consisting of octanoic acid, nonanoic acid and decanoic acid or a mixture thereof, and a second acid being a mixture of propionic acid and lactic acid, wherein the said composition comprises at least 0.1% of the said first acid (weight first acid:weight composition), wherein the weight ratio between the said second acid and the said first acid is of at least 8 (weight second acid: weight first acid), wherein the pH of the said composition is less than 5.0, and wherein the said composition comprises more than 20 wt % of lactic acid (weight lactic acid: weight of the said composition) and comprises more than 20 wt % of propionic acid (weight propionic acid: weight of the said composition). a first acid being selected from the group consisting of octanoic acid, nonanoic acid and decanoic acid or a mixture thereof, and a second acid being a mixture of propionic acid and lactic acid, wherein the said composition comprises at least 0.1% of the said first acid (weight first acid:weight composition), wherein the weight ratio between the said second acid and the said first acid is of at least 8 (weight second acid: weight first acid), wherein the pH of the said composition is less than 5.0, and wherein the said composition comprises more than 20 wt % of lactic acid (weight lactic acid: weight of the said composition) and comprises more than 20 wt % of propionic acid (weight propionic acid: weight of the said composition).
A surveillance device comprising: a circuit card assembly disposed in a first housing ; a plurality of light emitting diodes (108; 202) disposed on the circuit card assembly , each of the plurality of light emitting diodes (108; 202) configured to emit a narrow beam of light, wherein the narrow beams of light emitted by the plurality of light emitting diodes (108; 202) have a beam angle of less than approximately forty degrees; and characterised by a diffuser (114; 204) disposed in a second housing removably affixed to the first housing , the diffuser (114; 204) configured to spread the narrow beams of light; and by a Fresnel lens (112; 206) disposed in the second housing , the Fresnel lens (112; 206) configured to spread and redirect the light emitted from the diffuser . a circuit card assembly disposed in a first housing ; a plurality of light emitting diodes (108; 202) disposed on the circuit card assembly , each of the plurality of light emitting diodes (108; 202) configured to emit a narrow beam of light, wherein the narrow beams of light emitted by the plurality of light emitting diodes (108; 202) have a beam angle of less than approximately forty degrees; and characterised by a diffuser (114; 204) disposed in a second housing removably affixed to the first housing , the diffuser (114; 204) configured to spread the narrow beams of light; and by a Fresnel lens (112; 206) disposed in the second housing , the Fresnel lens (112; 206) configured to spread and redirect the light emitted from the diffuser .
A power supply apparatus comprising: a latch type first relay (RL1) inserted between a system power supply and a load and having a switch (SW), a tripping coil (L2) for opening the switch (SW), and a closing coil (L1) for closing the switch (SW); an electricity storage system having a charging and discharging unit inserted between a secondary battery and the load ; a non-latch type second relay (RL2) having a contact (S) and an operating coil (L3) for opening and closing the contact (S), with the operating coil (L3) being connected between the electricity storage system and the load , wherein the operating coil (L3) of the second relay (RL2) is connected between the system power supply and the load ; and a control circuit connected to the first relay (RL1) via the contact (S) of the second relay (RL2). a latch type first relay (RL1) inserted between a system power supply and a load and having a switch (SW), a tripping coil (L2) for opening the switch (SW), and a closing coil (L1) for closing the switch (SW); an electricity storage system having a charging and discharging unit inserted between a secondary battery and the load ; a non-latch type second relay (RL2) having a contact (S) and an operating coil (L3) for opening and closing the contact (S), with the operating coil (L3) being connected between the electricity storage system and the load , wherein the operating coil (L3) of the second relay (RL2) is connected between the system power supply and the load ; and a control circuit connected to the first relay (RL1) via the contact (S) of the second relay (RL2).
A method for performing wireless communication by a first device, configured to operate in a 3GPP system, the method comprising: receiving (S1510), from a base station, information related to a configured sidelink, SL, grant, information related to a first physical uplink control channel, PUCCH, resource to report SL hybrid automatic repeat request, HARQ, feedback information to the base station, and information related to the maximum number of transmissions of a medium access control, MAC, protocol data unit, PDU; transmitting (S1520), to a second device, the MAC PDU based on the configured SL grant and a SL HARQ process identifier, ID; flushing (S1530) a buffer related to the SL HARQ process ID, based on that the number of transmissions of the MAC PDU to the second device has reached the maximum number of transmissions; receiving (S1540), from the base station through a physical downlink control channel, PDCCH, a downlink control information, DCI, related to the SL HARQ process ID, wherein the DCI includes information related to a SL grant for retransmission of the MAC PDU and information related to a second PUCCH resource to report SL HARQ feedback information to the base station; and ignoring the SL grant, based on the buffer related to the SL HARQ process ID being flushed, wherein, by ignoring the SL grant, the first device does not transmit the MAC PDU to the second device based on the SL grant, and the first device does not transmit SL HARQ feedback information related to the MAC PDU to the base station based on the second PUCCH resource. receiving (S1510), from a base station, information related to a configured sidelink, SL, grant, information related to a first physical uplink control channel, PUCCH, resource to report SL hybrid automatic repeat request, HARQ, feedback information to the base station, and information related to the maximum number of transmissions of a medium access control, MAC, protocol data unit, PDU; transmitting (S1520), to a second device, the MAC PDU based on the configured SL grant and a SL HARQ process identifier, ID; flushing (S1530) a buffer related to the SL HARQ process ID, based on that the number of transmissions of the MAC PDU to the second device has reached the maximum number of transmissions; receiving (S1540), from the base station through a physical downlink control channel, PDCCH, a downlink control information, DCI, related to the SL HARQ process ID, wherein the DCI includes information related to a SL grant for retransmission of the MAC PDU and information related to a second PUCCH resource to report SL HARQ feedback information to the base station; and ignoring the SL grant, based on the buffer related to the SL HARQ process ID being flushed, wherein, by ignoring the SL grant, the first device does not transmit the MAC PDU to the second device based on the SL grant, and the first device does not transmit SL HARQ feedback information related to the MAC PDU to the base station based on the second PUCCH resource.
An examination device comprising: a hammer portion configured to tap an egg , said hammer portion including an elongated member formed to have an elongated length, and a touching portion which is coupled to a tip end portion of the elongated member and touches on the egg ; a driving portion configured to operate the hammer portion , said driving portion continuously biasing the hammer portion toward the egg during a single tapping operation of the hammer portion so that the touching portion impinges on the egg multiple times; a piezoelectric detection portion configured to detect a vibration caused by the hammer portion tapping the egg ; a calculation portion configured to calculate a number of times the hammer portion has impinged on the egg regarding a single tapping operation of the hammer portion , based on the vibration detected by the detection portion ; and a determination portion configured to determine quality of the egg , based on the number of times calculated by the calculation portion , characterized in that the piezoelectric detection portion is mounted to the touching portion and the elongated member has elasticity such that the elongated member warps when the hammer portion taps the egg .
An agricultural harvesting machine , comprising: a harvested crop repository having a fill capacity; crop processing functionality configured to engage crop in a field and to process the crop and to move the processed crop to the harvested crop repository ; a current fill level sensor configured to sense a fill variable indicative of a current fill level of the harvested crop repository and to generate a fill level signal indicative of the current fill level; yield and corresponding map generation logic configured to receive a georeferenced yield estimation for different field segments along a harvester path and a corresponding error estimation indicative of an error estimate for the yield estimation and to generate based thereon a yield and corresponding error map indicative of a predicted crop yield and corresponding error estimate at each of the plurality of different field segments; a path processing system that is configured to receive the fill level signal and the yield and corresponding error map containing the predicted crop yield and error estimate at the plurality of different field segments along the harvester path and to generate based thereon a georeferenced probability distribution indicative of a probability that the harvested crop repository will reach the fill capacity in the different field segments along the harvester path; a controllable subsystem ; and a control signal generator configured to generate a control signal to control the controllable subsystem based on the georeferenced probability distribution. a harvested crop repository having a fill capacity; crop processing functionality configured to engage crop in a field and to process the crop and to move the processed crop to the harvested crop repository ; a current fill level sensor configured to sense a fill variable indicative of a current fill level of the harvested crop repository and to generate a fill level signal indicative of the current fill level; yield and corresponding map generation logic configured to receive a georeferenced yield estimation for different field segments along a harvester path and a corresponding error estimation indicative of an error estimate for the yield estimation and to generate based thereon a yield and corresponding error map indicative of a predicted crop yield and corresponding error estimate at each of the plurality of different field segments; a path processing system that is configured to receive the fill level signal and the yield and corresponding error map containing the predicted crop yield and error estimate at the plurality of different field segments along the harvester path and to generate based thereon a georeferenced probability distribution indicative of a probability that the harvested crop repository will reach the fill capacity in the different field segments along the harvester path; a controllable subsystem ; and a control signal generator configured to generate a control signal to control the controllable subsystem based on the georeferenced probability distribution.
A fluid separation assembly comprising: a hollow fiber bundle comprising a plurality of hollow fiber membranes ; a first tubesheet and a second tubesheet encapsulating respective ends of the hollow fiber bundle, wherein the first tubesheet includes a first end , a second end , a body portion between the first end and the second end, and a plurality of radial through openings , the plurality of radial through openings being formed in the first tubesheet around a circumference of the first tubesheet and into the body portion of the first tubesheet such that the plurality of radial through openings intersect each of the plurality of hollow fiber membranes, and wherein the first tubesheet further comprises a manifold , the manifold being a space or open portion in the body portion of the first tubesheet and around the circumference of the first tubesheet, wherein the manifold is configured to contain a fluid that flows into and out of the plurality of radial through openings at a positive pressure; and a housing surrounding the hollow fiber bundle and the first and second tubesheets, the housing having a feed inlet port for introduction of feed gas, a permeate outlet port for removal of permeate gas , and a non-permeate outlet port for removal of non-permeate gas ; wherein the feed inlet port is in flow communication with the radial through openings on the first tubesheet , so that the feed gas can flow into the intersected hollow fiber membranes. a hollow fiber bundle comprising a plurality of hollow fiber membranes ; a first tubesheet and a second tubesheet encapsulating respective ends of the hollow fiber bundle, wherein the first tubesheet includes a first end , a second end , a body portion between the first end and the second end, and a plurality of radial through openings , the plurality of radial through openings being formed in the first tubesheet around a circumference of the first tubesheet and into the body portion of the first tubesheet such that the plurality of radial through openings intersect each of the plurality of hollow fiber membranes, and wherein the first tubesheet further comprises a manifold , the manifold being a space or open portion in the body portion of the first tubesheet and around the circumference of the first tubesheet, wherein the manifold is configured to contain a fluid that flows into and out of the plurality of radial through openings at a positive pressure; and a housing surrounding the hollow fiber bundle and the first and second tubesheets, the housing having a feed inlet port for introduction of feed gas, a permeate outlet port for removal of permeate gas , and a non-permeate outlet port for removal of non-permeate gas ; wherein the feed inlet port is in flow communication with the radial through openings on the first tubesheet , so that the feed gas can flow into the intersected hollow fiber membranes.
Protection device for a heel of a shoe, wherein said protection device comprises a tubular element configured to be inserted on, and coupled with, a heel of a shoe, wherein the tubular element is a heat-shrinkable plastic or bio-plastic element configured to shrink around a heel of a shoe following exposure to a heating agent at a temperature ranging from 50°C to 90°C, wherein the tubular element comprises a main development direction (L), and is configured in such a way that, following coupling said tubular element with a heel the main development direction (L) is arranged substantially parallel to a main development direction, or vertical direction (T), of a heel of a shoe and wherein the tubular element comprises at least one preferential rupture zone along said main development direction (L), characterized in that the tubular element comprises a filament incorporated or applied in the tubular element and arranged along this main development direction (L), said filament having a greater resistance to breaking than the tubular element for breaking or cutting the tubular element along said preferential rupture zone when pulled.
A cathode active material for a non-aqueous electrolyte secondary battery that is expressed by a general formula (A): Li 1+a Ni x Co y Mn z M t O 2 (where -0.05 ≤ a ≤ 0.20, x + y + z + t = 1, 0.3 ≤ x ≤ 0.7, 0.1 ≤ y ≤ 0.4, 0.1 ≤ z ≤ 0.4, 0 ≤ t ≤ 0.05, and M is one or more element selected from among Ca, Mg, Al, Ti, V, Cr, Zr, Nb, Mo, Hf, Ta, and W), and includes layered hexagonal crystal lithium nickel cobalt manganese composite oxide particles that include secondary particles that are formed by an aggregation of primary particles; characterized in that the lithium nickel cobalt manganese composite oxide particles are obtained by performing calcination of the lithium mixture comprising nickel cobalt manganese composite hydroxide and lithium compound in an oxidizing atmosphere where the amount of time from 650°C to the calcination temperature is in the range of 0.5 hours to 1.5 hours, the calcination temperature is 850°C to 1000°C, and the temperature is maintained at this temperature for 1.0 hour to 5.0 hours; and the ratio of the crystallite sizes found from the half peak width of the diffraction peak at plane with respect to the half peak width of the diffraction peak at plane of the Miller indices (hkl) in powder X-ray diffraction that uses CuKα rays is 0.35 or greater and less than 0.60; and the crystallite size that is found from the half peak width of the diffraction peak at plane is in the range of 80 nm to 140 nm, and the crystallite size that is found from the half peak width of the diffraction peak at plane is in the range of 40 nm to 80 nm.
A method for wireless communication performed by a user equipment , UE, with multi-subscription, the method comprising the steps of: transmitting an indication of a physical layer sharing capability of the UE to a network, wherein the physical layer sharing capability refers to the capability of the UE that one or more subscriber identity modules, SIMs, of the UE share a physical layer; transmitting an indication of a multi-subscription coordination capability of the UE to the network; establishing a link for a first subscription with the network based on the multi-subscription coordination capability; and establishing a second subscription with the network using the link based on the multi-subscription coordination capability, the first subscription being associated with the second subscription; wherein the first subscription is associated with a first set of network slices and the second subscription is associated with a second set of network slices. transmitting an indication of a physical layer sharing capability of the UE to a network, wherein the physical layer sharing capability refers to the capability of the UE that one or more subscriber identity modules, SIMs, of the UE share a physical layer; transmitting an indication of a multi-subscription coordination capability of the UE to the network; establishing a link for a first subscription with the network based on the multi-subscription coordination capability; and establishing a second subscription with the network using the link based on the multi-subscription coordination capability, the first subscription being associated with the second subscription;