mhurhangee/ep-ind-claims huggingface dataset:
A method for recovering energy associated with the operation of an elevator, comprising: determining, by a processing device, a battery charging current provided by a battery charger; estimating a state of charge (SoC) of at least one battery based on charging current acceptance capability; and causing, by the processing device, a charging of the at least one battery to within a threshold amount of 100% of SoC i.e. a level or value that is less than 100% SoC, such that the battery is able to recover energy associated with elevator operation; characterized by the method further comprising subsequent to charging the at least one battery to within the threshold amount of 100% SoC, determining, by the processing device, that the at least one battery has not been fully charged i.e. to approximately 100% SoC for an amount of time greater than a second threshold; and causing, by the processing device, the at least one battery to be charged for an amount of time greater than a third threshold, which causes the battery to be charged to approximately 100% SoC, based on determining that the at least one battery has not been fully charged for the amount of time greater than the second threshold. determining, by a processing device, a battery charging current provided by a battery charger; estimating a state of charge (SoC) of at least one battery based on charging current acceptance capability; and causing, by the processing device, a charging of the at least one battery to within a threshold amount of 100% of SoC i.e. a level or value that is less than 100% SoC, such that the battery is able to recover energy associated with elevator operation; characterized by the method further comprising subsequent to charging the at least one battery to within the threshold amount of 100% SoC, determining, by the processing device, that the at least one battery has not been fully charged i.e. to approximately 100% SoC for an amount of time greater than a second threshold; and causing, by the processing device, the at least one battery to be charged for an amount of time greater than a third threshold, which causes the battery to be charged to approximately 100% SoC, based on determining that the at least one battery has not been fully charged for the amount of time greater than the second threshold.
Breathing mask or fireman's helmet having a communication system, comprising: a headphone, which is designed to take an audio signal as a basis for outputting sound waves to one ear of a user; a microphone, which is designed to take ambient sound as a basis for outputting a microphone signal; a processing circuit, which is designed to take the microphone signal as a basis for generating a signal component of the audio signal that comprises information relating to the production of sound waves that destructively interfere with a portion of the ambient sound that occurs at the ear of the user; a radio interface; and a control circuit, which is designed to activate the processing circuit on the basis of an operating state of the radio interface, wherein the control circuit is further designed to detect reception of a radio message via the radio interface and, as a result, to activate the processing circuit, wherein the control circuit is further designed to detect the end of the reception of the radio message and, as a result, to deactivate the processing circuit, and wherein the control circuit determines a volume level of the ambient sound on the basis of the microphone signal and activates the processing circuit if the volume level is above a reference level. a headphone, which is designed to take an audio signal as a basis for outputting sound waves to one ear of a user; a microphone, which is designed to take ambient sound as a basis for outputting a microphone signal; a processing circuit, which is designed to take the microphone signal as a basis for generating a signal component of the audio signal that comprises information relating to the production of sound waves that destructively interfere with a portion of the ambient sound that occurs at the ear of the user; a radio interface; and a control circuit, which is designed to activate the processing circuit on the basis of an operating state of the radio interface, wherein the control circuit is further designed to detect reception of a radio message via the radio interface and, as a result, to activate the processing circuit, wherein the control circuit is further designed to detect the end of the reception of the radio message and, as a result, to deactivate the processing circuit, and wherein the control circuit determines a volume level of the ambient sound on the basis of the microphone signal and activates the processing circuit if the volume level is above a reference level.
A lawn-grass mowing machine, comprising: a collector which contains lawn-grass mowed with a mower; an introducing guide provided inside the collector, which receives mowed-grass; a diffusion guiding plate arranged at one end side of the introducing guide; a bracket member; and a fulcrum shaft held by the bracket member, wherein the diffusion guiding plate is held by the fulcrum shaft, and the diffusion guiding plate is configured so as to be swingable, characterized in that the bracket member is fixed to the introducing guide. a collector which contains lawn-grass mowed with a mower; an introducing guide provided inside the collector, which receives mowed-grass; a diffusion guiding plate arranged at one end side of the introducing guide; a bracket member; and a fulcrum shaft held by the bracket member, wherein the diffusion guiding plate is held by the fulcrum shaft, and the diffusion guiding plate is configured so as to be swingable, characterized in that the bracket member is fixed to the introducing guide.
A method for obtaining downlink channel information in a frequency division duplex, FDD, system, comprising: selecting (step 1101) at least one downlink carrier from N carriers; bearing (step 1102) at least one uplink sounding reference symbol, SRS, on the downlink carrier for sending, to enable a base station receiving the uplink SRS on said downlink carrier to obtain uplink channel information, according to which downlink channel information of the downlink carrier is obtained because of uplink/downlink channel reciprocity; wherein the N carriers comprise paired carriers and unpaired carriers, or all the N carriers are unpaired carriers. selecting (step 1101) at least one downlink carrier from N carriers; bearing (step 1102) at least one uplink sounding reference symbol, SRS, on the downlink carrier for sending, to enable a base station receiving the uplink SRS on said downlink carrier to obtain uplink channel information, according to which downlink channel information of the downlink carrier is obtained because of uplink/downlink channel reciprocity; wherein the N carriers comprise paired carriers and unpaired carriers, or all the N carriers are unpaired carriers.
A catalyst composition comprising a catalyst represented by the following Formula 1 and a cocatalyst represented by the following Formula 2: in Formula 1, R is an alkyl group of 2 to 12 carbon atoms, R 1 to R 4 are each independently a halogen group, and o, p, q and r are each independently an integer of 1 to 5, [Formula 2] (R a) m Al 3-m in Formula 2, R a is a hydrocarbon group of 1 to 20 carbon atoms, Z is a halogen group, and m is an integer of 0 to 3, wherein a weight ratio of the catalyst represented by Formula 1 and the cocatalyst represented by Formula 2 is 1:0.1 to 1:50. R is an alkyl group of 2 to 12 carbon atoms, R 1 to R 4 are each independently a halogen group, and o, p, q and r are each independently an integer of 1 to 5, [Formula 2] (R a) m Al 3-m in Formula 2, R a is a hydrocarbon group of 1 to 20 carbon atoms, Z is a halogen group, and m is an integer of 0 to 3, wherein a weight ratio of the catalyst represented by Formula 1 and the cocatalyst represented by Formula 2 is 1:0.1 to 1:50. R a is a hydrocarbon group of 1 to 20 carbon atoms, Z is a halogen group, and m is an integer of 0 to 3, wherein a weight ratio of the catalyst represented by Formula 1 and the cocatalyst represented by Formula 2 is 1:0.1 to 1:50.
A method for forming a curved sensor comprising the steps of: providing a curved sensor base (43e, k) having a vertical axis; providing a plurality of flat mini-sensors (420, 422, 424, 426), each mini-sensor comprising a plurality of pixels of defined density; and affixing said plurality of flat mini-sensors (420, 422, 424, 426) to said sensor base (43e, k) so that said flat mini-sensors are arranged in horizontal rows forming rings about the vertical axis, wherein when starting from the center mini-sensor, each successive row is less densely populated with the pixels of the flat mini-sensors ( 422, 424, 426), characterized in that the size of the center mini-sensor is relatively small, while the mini-sensors (422, 424, 426) of each successive larger ring are larger. providing a curved sensor base (43e, k) having a vertical axis; providing a plurality of flat mini-sensors (420, 422, 424, 426), each mini-sensor comprising a plurality of pixels of defined density; and affixing said plurality of flat mini-sensors (420, 422, 424, 426) to said sensor base (43e, k) so that said flat mini-sensors are arranged in horizontal rows forming rings about the vertical axis,
Domestic appliance door guide device with at least one door guide means, which has at least one guiding surface, characterised in that the guiding surface is formed at least partially from a plastic, with the door guide means being made of a single piece of plastic.
A method for regenerating a particle filter, which is arranged in an exhaust system of an internal combustion engine, comprising at least the following steps: a) performing a first regeneration of the particle filter up to reaching a lower limit value of a particle load of the particle filter; b) performing a verification measurement, wherein the internal combustion engine is operated at a first operating point, so that upstream of the particle filter an exhaust gas with at least ∘ an excess of oxygen or ∘ an increased first temperature is provided; wherein, if during or after step b), an increase in a second temperature of the exhaust gas is detected downstream of the particle filter, the following step is carried out: c) initiation of a second regeneration of the particle filter. a) performing a first regeneration of the particle filter up to reaching a lower limit value of a particle load of the particle filter; b) performing a verification measurement, wherein the internal combustion engine is operated at a first operating point, so that upstream of the particle filter an exhaust gas with at least ∘ an excess of oxygen or ∘ an increased first temperature is provided; wherein, if during or after step b), an increase in a second temperature of the exhaust gas is detected downstream of the particle filter, the following step is carried out: ∘ an excess of oxygen or ∘ an increased first temperature c) initiation of a second regeneration of the particle filter.
An antiperspirant composition for personal body care, made up as a suspension or solution which is sprayable with or without a propellant, containing a) at least one active antiperspirant substance, b) at least one oil which is liquid under normal conditions as carrier, c) 0 - 7 wt.%, preferably 0 - 3 wt.%, of free water, based on the weight of the propellant-free composition, d) at least one alkyl-modified polyether of the general formula ACTIVATOR- wherein R 1 signifies an aliphatic hydrocarbon residue with 1 to 3 C atoms, R 2 signifies an aliphatic hydrocarbon residue with 8 to 30 C atoms, m is a rational number from 10 to 50, n is a rational number from 0 to 10, p is a rational number from 1 to 10. a) at least one active antiperspirant substance, b) at least one oil which is liquid under normal conditions as carrier, c) 0 - 7 wt.%, preferably 0 - 3 wt.%, of free water, based on the weight of the propellant-free composition, d) at least one alkyl-modified polyether of the general formula ACTIVATOR- wherein R 1 signifies an aliphatic hydrocarbon residue with 1 to 3 C atoms, R 2 signifies an aliphatic hydrocarbon residue with 8 to 30 C atoms, m is a rational number from 10 to 50, n is a rational number from 0 to 10, p is a rational number from 1 to 10. wherein R 1 signifies an aliphatic hydrocarbon residue with 1 to 3 C atoms, R 2 signifies an aliphatic hydrocarbon residue with 8 to 30 C atoms, m is a rational number from 10 to 50, n is a rational number from 0 to 10, p is a rational number from 1 to 10.
A method of wireless communication at a user equipment, UE, the method comprising: receiving, from a network entity, a downlink control information, DCI, scheduling a physical downlink shared channel, PDSCH, the PDSCH including a first transmission occasion and a second transmission occasion following the first transmission occasion during a single slot, wherein the DCI is configured for scheduling transmission of a same transport block, TB, in the first transmission occasion and the second transmission occasion; determining a processing time corresponding to the first transmission occasion; and determining an overall processing time following a last symbol of the PDSCH, wherein the overall processing time corresponds to the total time for the UE to decode the DCI that schedules the PDSCH, to receive the PDSCH and decode the TB included within the PDSCH, and to prepare a hybrid automatic repeat request acknowledgement, HARQ-ACK, corresponding to the PDSCH, wherein the overall processing time comprises a first portion of processing time and a second portion of processing time, and wherein the second portion of processing time is the processing time corresponding to the first transmission occasion. receiving, from a network entity, a downlink control information, DCI, scheduling a physical downlink shared channel, PDSCH, the PDSCH including a first transmission occasion and a second transmission occasion following the first transmission occasion during a single slot, wherein the DCI is configured for scheduling transmission of a same transport block, TB, in the first transmission occasion and the second transmission occasion; determining a processing time corresponding to the first transmission occasion; and determining an overall processing time following a last symbol of the PDSCH, wherein the overall processing time corresponds to the total time for the UE to decode the DCI that schedules the PDSCH, to receive the PDSCH and decode the TB included within the PDSCH, and to prepare a hybrid automatic repeat request acknowledgement, HARQ-ACK, corresponding to the PDSCH, wherein the overall processing time comprises a first portion of processing time and a second portion of processing time, and wherein the second portion of processing time is the processing time corresponding to the first transmission occasion.
An intake valve for a combustion engine, comprising: a head portion having a top surface opposite of an underside surface, wherein the underside surface comprises a first angled surface and a second angled surface, the first angled surface being oriented at a different angle than the second angled surface, and a round transition between the first angled surface and second angled surface; a stem portion extending from the underside surface; wherein the top surface has a beveled edge; and wherein the transition from second angled surface to beveled edge is also rounded such that the transition from the underside surface to the top surface takes advantage of the Coanda effect and results in a smaller air pocket size near the center of the top surface. a head portion having a top surface opposite of an underside surface, wherein the underside surface comprises a first angled surface and a second angled surface, the first angled surface being oriented at a different angle than the second angled surface, and a round transition between the first angled surface and second angled surface; a stem portion extending from the underside surface; wherein the top surface has a beveled edge; and wherein the transition from second angled surface to beveled edge is also rounded such that the transition from the underside surface to the top surface takes advantage of the Coanda effect and results in a smaller air pocket size near the center of the top surface.
A shroud comprising: a main body portion having: a forward end; an aft end; first and second circumferential ends (28, 30); an ID face; an OD face; a plurality of mounting hooks (42, 44, 46); and a plurality of passageway legs (82...92) each including: a first end open to the first circumferential end; an inlet port (60...72) from the OD face; a second end open to the second circumferential end; and at least one local cross sectional area reduction in an open portion of the leg with leg portions on both sides of the reduction having larger cross sectional areas; characterised in that the reduction comprises an elongate wall radially spanning the leg and leaving fore and aft gaps (304, 306). a main body portion having: a forward end; an aft end; first and second circumferential ends (28, 30); an ID face; an OD face; a plurality of mounting hooks (42, 44, 46); and a plurality of passageway legs (82...92) each including: a first end open to the first circumferential end; an inlet port (60...72) from the OD face; a second end open to the second circumferential end; and at least one local cross sectional area reduction in an open portion of the leg with leg portions on both sides of the reduction having larger cross sectional areas; characterised in that the reduction comprises an elongate wall radially spanning the leg and leaving fore and aft gaps (304, 306). a forward end; an aft end; first and second circumferential ends (28, 30); an ID face; an OD face; a plurality of mounting hooks (42, 44, 46); and a plurality of passageway legs (82...92) each including: a first end open to the first circumferential end; an inlet port (60...72) from the OD face; a second end open to the second circumferential end; and at least one local cross sectional area reduction in an open portion of the leg with leg portions on both sides of the reduction having larger cross sectional areas; characterised in that the reduction comprises an elongate wall radially spanning the leg and leaving fore and aft gaps (304, 306). a first end open to the first circumferential end; an inlet port (60...72) from the OD face; a second end open to the second circumferential end; and at least one local cross sectional area reduction in an open portion of the leg with leg portions on both sides of the reduction having larger cross sectional areas; characterised in that the reduction comprises an elongate wall radially spanning the leg and leaving fore and aft gaps (304, 306).
A building structure comprising a single piece mineral wool insulation panel (20, 40) arranged in a cavity between first and second structural plates, in which the single piece mineral wool insulation panel (20, 40) has a first, planar major surface and a second planar major surface, the first and second major surfaces of the mineral wool insulation panel being parallel to each other; in which the first major surface of the mineral wool insulation panel is arranged adjacent to a planar, cavity side major surface of the first structural plate, and in which the second major surface of the mineral wool insulation panel is arranged adjacent to a planar, cavity side major surface of the second structural plate, and in which the mineral wool insulation panel (20, 40) comprises a plurality of acoustic cavities (23, 43a, 43b, 43c, 43d, 43e, 43f) positioned between its first and second major surfaces; and wherein each of the plurality of acoustic cavities (23, 43a, 43b, 43c, 43d, 43e, 43f) is surrounded or substantially surrounded by the mineral wool structure, characterized in that the acoustic cavities are air cavities. in which the single piece mineral wool insulation panel (20, 40) has a first, planar major surface and a second planar major surface, the first and second major surfaces of the mineral wool insulation panel being parallel to each other; in which the first major surface of the mineral wool insulation panel is arranged adjacent to a planar, cavity side major surface of the first structural plate, and in which the second major surface of the mineral wool insulation panel is arranged adjacent to a planar, cavity side major surface of the second structural plate, and in which the mineral wool insulation panel (20, 40) comprises a plurality of acoustic cavities (23, 43a, 43b, 43c, 43d, 43e, 43f) positioned between its first and second major surfaces; and wherein each of the plurality of acoustic cavities (23, 43a, 43b, 43c, 43d, 43e, 43f) is surrounded or substantially surrounded by the mineral wool structure, characterized in that the acoustic cavities are air cavities.
Corner panel membrane for a bellows membrane for a gangway whereby • the corner panel membrane has at least one attachment section for attaching the corner panel membrane to a supporting structure of the gangway, characterized in that • within the attachment section the corner panel membrane has a spine section extending in a longitudinal direction (B-B) and thicker sections of a first thickness that border the spine section and propagate in a direction perpendicular to the longitudinal direction (B-B) of the spine section and slimmer sections of a second thickness that is smaller than the first thickness, whereby the slimmer sections also propagate in a direction perpendicular to the longitudinal direction (B-B) of the spine section, • whereby the widths of the thicker section, which is understood to be the extent of the thicker section in the direction of the longitudinal direction (B-B)of the spine section, is larger closer to the spine section than further away from the spine section. • the corner panel membrane has at least one attachment section for attaching the corner panel membrane to a supporting structure of the gangway, • within the attachment section the corner panel membrane has a spine section extending in a longitudinal direction (B-B) and thicker sections of a first thickness that border the spine section and propagate in a direction perpendicular to the longitudinal direction (B-B) of the spine section and slimmer sections of a second thickness that is smaller than the first thickness, whereby the slimmer sections also propagate in a direction perpendicular to the longitudinal direction (B-B) of the spine section, • whereby the widths of the thicker section, which is understood to be the extent of the thicker section in the direction of the longitudinal direction (B-B)of the spine section, is larger closer to the spine section than further away from the spine section.
An EC motor having a stator in which an armature is rotatably mounted, wherein the armature comprises an armature shaft on which an armature plate stack having a plurality of permanent magnets is held, wherein the armature plate stack being electrically insulated with respect to the armature shaft by means of a casting compound, wherein the permanent magnets being held in pockets of the armature plate stack by means of casting compound, characterized in that a balancing ring (24, 26) is provided at at least one axial end of the armature plate stack which is accommodated with a central recess on the armature shaft, wherein a gap (32, 34) between the armature shaft and the central recess being filled with casting compound, in that the central recess of the balancing ring (24, 26) is used as a sprue channel in the form of the gap (32, 34) for the passage of casting compound into a gap between the armature plate stack and the armature shaft and into the pockets of the armature plate stack, and in that the outer diameter of each balancing ring (24, 26) corresponds to the outer diameter of the armature plate stack.