mhurhangee/patent-ind-claim-en huggingface dataset:
A wearable medical system comprising: a flexible body configured to cover at least a portion of each of a left anterior quadrant, a left posterior quadrant, a right posterior quadrant, and a right anterior quadrant of a scalp of a head of a patient; a securing member connected to the flexible body, the securing member configured to extend around a circumference of the head and stabilize the flexible body with respect to the scalp of the patient; a recharge coil container configured to house a recharge coil to recharge an implantable power source of a cranially-mountable implantable medical device, an attachment assembly configured to mount to a location of the flexible body, the attachment assembly configured to couple the flexible body to the recharge coil container ; characterized in that : the recharge coil container comprises a bore ; and the attachment assembly comprises a bracket defining a cylindrical protrusion configured to be received by a bore of the recharge coil container , wherein the bracket further comprises a cylindrical recess ; and wherein the attachment assembly further comprises a pin configured to be securely received by the cylindrical recess . a flexible body configured to cover at least a portion of each of a left anterior quadrant, a left posterior quadrant, a right posterior quadrant, and a right anterior quadrant of a scalp of a head of a patient; a securing member connected to the flexible body, the securing member configured to extend around a circumference of the head and stabilize the flexible body with respect to the scalp of the patient; a recharge coil container configured to house a recharge coil to recharge an implantable power source of a cranially-mountable implantable medical device, an attachment assembly configured to mount to a location of the flexible body, the attachment assembly configured to couple the flexible body to the recharge coil container ; characterized in that : the recharge coil container comprises a bore ; and the attachment assembly comprises a bracket defining a cylindrical protrusion configured to be received by a bore of the recharge coil container , wherein the bracket further comprises a cylindrical recess ; and wherein the attachment assembly further comprises a pin configured to be securely received by the cylindrical recess . the recharge coil container comprises a bore ; and the attachment assembly comprises a bracket defining a cylindrical protrusion configured to be received by a bore of the recharge coil container , wherein the bracket further comprises a cylindrical recess ; and wherein the attachment assembly further comprises a pin configured to be securely received by the cylindrical recess .
Device for cultivating and harvesting mushrooms , with - at least one picking rack , wherein the mushrooms growing on a substrate are arranged on the picking rack in at least one harvesting plane, - at least one conveyor belt extending along the picking rack and having at least one recess for receiving the mushrooms harvested from the substrate, wherein the conveyor belt is designed to convey the mushrooms with the stem received in the recess , wherein a dropping device arranged at a dropping point of the conveyor belt is designed to convert the conveying movement of the ingested mushrooms into a dropping movement, wherein the dropping device moves the mushroom stems out of the recess , after which the mushrooms are dropped from the conveyor belt under the effect of gravity, characterized in that at least one conveyor belt has marked recesses for receiving the mushrooms harvested from the substrate, sorted according to quality, in the marked recesses . - at least one picking rack , wherein the mushrooms growing on a substrate are arranged on the picking rack in at least one harvesting plane, - at least one conveyor belt extending along the picking rack and having at least one recess for receiving the mushrooms harvested from the substrate, wherein the conveyor belt is designed to convey the mushrooms with the stem received in the recess , wherein a dropping device arranged at a dropping point of the conveyor belt is designed to convert the conveying movement of the ingested mushrooms into a dropping movement, wherein the dropping device moves the mushroom stems out of the recess , after which the mushrooms are dropped from the conveyor belt under the effect of gravity, characterized in that at least one conveyor belt has marked recesses for receiving the mushrooms harvested from the substrate, sorted according to quality, in the marked recesses .
A method for wireless communication using resources that include a Long-Term Evolution, LTE, legacy control region (310; 510; 610) allocated for a first type of communications operating in a first latency mode and a low latency region (315; 515; 615) allocated for a second type of communications operating in a second latency mode, wherein a round trip time, RTT, between a transmission and acknowledgement of the transmission is reduced in the second latency mode relative to the RTT in the first latency mode, the method comprising: receiving an indication in the legacy control region that demodulation reference signals transmitted in two or more transmission time intervals are combinable, wherein the demodulation reference signals are transmitted using resources of the low latency region associated with a group identification or a user equipment, UE, identification; receiving transmissions during the two or more transmission time intervals; and combining the demodulation reference signals included in the transmissions during the two or more transmission time intervals based at least in part on the indication. receiving an indication in the legacy control region that demodulation reference signals transmitted in two or more transmission time intervals are combinable, wherein the demodulation reference signals are transmitted using resources of the low latency region associated with a group identification or a user equipment, UE, identification; receiving transmissions during the two or more transmission time intervals; and combining the demodulation reference signals included in the transmissions during the two or more transmission time intervals based at least in part on the indication.
A vehicle comprising: a vertically openable/closable door of a canopy type including: a canopy section including a roof , a front windshield , and a side windshield and projected upward in the vehicle to cover a cabin from above; wherein a front end of the door is attached to a body in a freely rotatable manner, and a rear end of the door is vertically movable to open and close the cabin ; characterised by a side section of said door bulging outwardly in a vehicle width direction from the canopy section to cover an upper surface of a body lateral section and formed integrally with the canopy section , wherein a seat section that supports buttocks of an occupant when the occupant gets in/out and is provided on an upper surface of the body lateral section covered with the side section from above.
An antenna-coupled radio frequency, RF, probe with a probe tip that is replaceable, the antenna-couple RF probe comprising: the probe tip; one or more transmission lines connected to the probe tip , wherein the one or more transmission lines connected to the probe tip comprise one or more of coplanar waveguides, striplines , microstrips, micro-coaxes, photonic crystal waveguides, Goubau lines, planar corrugated lines and three-dimensional transmission lines ; one or more antenna on the probe tip connected to the one or more transmission lines; and a probe body, wherein the probe body comprises at least a focusing device and one or more collimating structures, wherein the focusing device comprises one of a hyperhemispherical high-resistivity silicon lens, a convex lens, a Fresnel zone plat or flat lens, a photonic crystal, a horn antenna, and a micro-lens array that focuses signals received by the focusing device from the one or more antennas such that they are routed to a desired location by the collimating device, and wherein the collimating device comprises one or more minors used to route the signals to the desired location, said desired location comprising a horn antenna a directive aperture, a dielectric rod or a travelling-wave antenna. the probe tip; one or more transmission lines connected to the probe tip , wherein the one or more transmission lines connected to the probe tip comprise one or more of coplanar waveguides, striplines , microstrips, micro-coaxes, photonic crystal waveguides, Goubau lines, planar corrugated lines and three-dimensional transmission lines ; one or more antenna on the probe tip connected to the one or more transmission lines; and a probe body, wherein the probe body comprises at least a focusing device and one or more collimating structures, wherein the focusing device comprises one of a hyperhemispherical high-resistivity silicon lens, a convex lens, a Fresnel zone plat or flat lens, a photonic crystal, a horn antenna, and a micro-lens array that focuses signals received by the focusing device from the one or more antennas such that they are routed to a desired location by the collimating device, and wherein the collimating device comprises one or more minors used to route the signals to the desired location, said desired location comprising a horn antenna a directive aperture, a dielectric rod or a travelling-wave antenna.
A method for controlling the operation of an exhaust gas aftertreatment device warm-up strategy for increasing a temperature of an exhaust gas aftertreatment device located in an exhaust gas stream of an internal combustion engine , the method comprising the steps of: initiating the warm-up strategy when the internal combustion engine is operating, a temperature of the internal combustion engine exceeds an engine temperature threshold and an exhaust gas aftertreatment device temperature is less than a first exhaust gas aftertreatment device temperature threshold; and stopping the warm-up strategy when the exhaust gas aftertreatment device temperature exceeds a second exhaust gas aftertreatment device temperature threshold and if the exhaust gas aftertreatment device temperature remains below the second exhaust gas aftertreatment device temperature threshold, then stopping the warm-up strategy when the quantity of the fuel burned by the internal combustion engine since the warm-up strategy was initiated exceeds a fuel quantity threshold. initiating the warm-up strategy when the internal combustion engine is operating, a temperature of the internal combustion engine exceeds an engine temperature threshold and an exhaust gas aftertreatment device temperature is less than a first exhaust gas aftertreatment device temperature threshold; and stopping the warm-up strategy when the exhaust gas aftertreatment device temperature exceeds a second exhaust gas aftertreatment device temperature threshold and if the exhaust gas aftertreatment device temperature remains below the second exhaust gas aftertreatment device temperature threshold, then stopping the warm-up strategy when the quantity of the fuel burned by the internal combustion engine since the warm-up strategy was initiated exceeds a fuel quantity threshold.
A support for raised floors comprising ✔ a base element having an annular member and a base which is fixed to the annular member and which is configured to be supported on a support surface (S) so as to define the base of the support , ✔ a support head which is configured to receive in a supporting way a covering element of the floor to be supported and which has a support face which defines the support base for the covering element of the floor to be supported and an opposite second face which is directed in use towards the support surface (S), ✔ a support structure which is configured to be interposed in use between the base element and the support head , said support structure being provided with connection elements to connect the support structure to the base element , the second face being configured to be supported in use on an abutment surface of the support structure , wherein the support comprises a friction-producing device having a friction end-piece which is defined on one among said second face and said abutment surface and which is positioned so as to abut against the other among said abutment surface and said second face which is made of a high friction coefficient material in order to apply friction to the relative sliding between the support structure and the support head characterised in that the friction-producing device further comprises a friction mat which projects from the support base and which is configured to apply friction to the sliding of the covering element in relation to the support , the friction mat preferably being constructed integrally with the friction end-piece so as to form a friction element of the friction-producing device , each friction element further comprising a connection end-piece between the friction mat and the friction end-piece , wherein the friction end-piece comprises a rib structure which extends in a radial direction on the second face or on the abutment surface , respectively. ✔ a base element having an annular member and a base which is fixed to the annular member and which is configured to be supported on a support surface (S) so as to define the base of the support , ✔ a support head which is configured to receive in a supporting way a covering element of the floor to be supported and which has a support face which defines the support base for the covering element of the floor to be supported and an opposite second face which is directed in use towards the support surface (S), ✔ a support structure which is configured to be interposed in use between the base element and the support head , said support structure being provided with connection elements to connect the support structure to the base element , the second face being configured to be supported in use on an abutment surface of the support structure , wherein the support
A printing system comprising: a fluid ejection chamber having a nozzle ; a drop ejecting element positioned in the fluid ejection chamber to cause a droplet of fluid in the fluid ejection chamber to be ejected through the nozzle ; a fluid circulation channel in communication with the fluid ejection chamber and a fluid feed slot ; a fluid circulating element positioned in the fluid circulation channel to circulate fluid through the fluid circulation channel and the fluid ejection chamber ; characterised in that the printing system further comprises a logic device configured to: receive a data stream addressed to the drop ejecting element ; determine whether the data stream indicates that the drop ejecting element is to be energized; and in response to a determination that the data stream does not indicate that the drop ejecting element is to be energized, energize the fluid circulating element . a fluid ejection chamber having a nozzle ; a drop ejecting element positioned in the fluid ejection chamber to cause a droplet of fluid in the fluid ejection chamber to be ejected through the nozzle ; a fluid circulation channel in communication with the fluid ejection chamber and a fluid feed slot ; a fluid circulating element positioned in the fluid circulation channel to circulate fluid through the fluid circulation channel and the fluid ejection chamber ; characterised in that the printing system further comprises a logic device configured to: receive a data stream addressed to the drop ejecting element ; determine whether the data stream indicates that the drop ejecting element is to be energized; and in response to a determination that the data stream does not indicate that the drop ejecting element is to be energized, energize the fluid circulating element . receive a data stream addressed to the drop ejecting element ; determine whether the data stream indicates that the drop ejecting element is to be energized; and in response to a determination that the data stream does not indicate that the drop ejecting element is to be energized, energize the fluid circulating element .
Method for treating mattresses , the mattresses being washed, dewatered and dried, the dewatering being performed by squeezing out the mattresses , characterized in that the mattresses are dried by irradiation with electromagnetic waves, the electromagnetic waves being focused in such a way that a greatest energy density is achieved in the interior of the mattress , so that the mattress is dried from the inside outwards.
A rubber-reinforcing cord for reinforcing a rubber product , the rubber-reinforcing cord comprising: a reinforcing fiber or a reinforcing fiber bundle ; a first coating provided to cover the reinforcing fiber or the reinforcing fiber bundle ; and a second coating provided to cover the first coating and be located at an outer surface of the rubber-reinforcing cord , wherein the first coating comprises: first rubber comprising nitrile-based rubber as a main component; and a first crosslinking agent, the second coating is a coating different from the first coating and comprises: second rubber consisting essentially of nitrile-based rubber; and a second crosslinking agent, and the nitrile-based rubber is at least one selected from nitrile rubber, hydrogenated nitrile rubber, carboxylated nitrile rubber, and carboxylated hydrogenated nitrile rubber, characterized in that the second crosslinking agent comprises a maleimide crosslinking agent and an isocyanate compound. a reinforcing fiber or a reinforcing fiber bundle ; a first coating provided to cover the reinforcing fiber or the reinforcing fiber bundle ; and a second coating provided to cover the first coating and be located at an outer surface of the rubber-reinforcing cord , wherein the first coating comprises: first rubber comprising nitrile-based rubber as a main component; and a first crosslinking agent, the second coating is a coating different from the first coating and comprises: second rubber consisting essentially of nitrile-based rubber; and a second crosslinking agent, and the nitrile-based rubber is at least one selected from nitrile rubber, hydrogenated nitrile rubber, carboxylated nitrile rubber, and carboxylated hydrogenated nitrile rubber, characterized in that the second crosslinking agent comprises a maleimide crosslinking agent and an isocyanate compound.
A medical device, the device being a balloon, comprising a plasticized nylon, wherein the plasticized nylon comprises a nylon and 0.1 wt-% to 70 wt-% of an amide-containing plasticizer, based on the total weight of the plasticized nylon, selected from a compound having the following structural formula: wherein: each R 1 , R 3 , and R 5 is independently selected from a C2-C18 linear, branched, or cyclic alkyl group, a C5-C12 monovalent aromatic group, and combinations thereof; and each R 2 and R 4 is independently selected from a C1-C5 linear alkylene group, a C5-C12 divalent aromatic group, and combinations thereof. each R 1 , R 3 , and R 5 is independently selected from a C2-C18 linear, branched, or cyclic alkyl group, a C5-C12 monovalent aromatic group, and combinations thereof; and each R 2 and R 4 is independently selected from a C1-C5 linear alkylene group, a C5-C12 divalent aromatic group, and combinations thereof.
A breath-actuated inhalation device comprising an aerosol generator having a vibrator and a membrane , a reservoir for liquid to be aerosolized which is in fluid communication with the membrane, and a controller that provides a driver signal to drive the vibrator so that the membrane vibrates and generates an aerosol, wherein the controller is configured to: • drive the vibrator intermittently so that the aerosol generator repeatedly undergoes periods of aerosol generation during a patient's inhalations and periods of little or no aerosol generation preceding and/or succeeding the inhalations; characterized in that the controller is further configured to: • perform scans in which the membrane is vibrated at a plurality of frequencies, and in which at least one electrical parameter of the vibrator is measured at the plurality of frequencies to provide a spectrum; wherein the scans are performed during the inhalations and during the periods preceding or succeeding the inhalations; • compare a spectrum obtained during an inhalation with a spectrum obtained during the period preceding or succeeding that inhalation; • determine whether liquid is present in the reservoir on the basis of the comparison of the spectra; and • cease to drive the vibrator if the controller determines that no liquid is present. • drive the vibrator intermittently so that the aerosol generator repeatedly undergoes periods of aerosol generation during a patient's inhalations and periods of little or no aerosol generation preceding and/or succeeding the inhalations; • perform scans in which the membrane is vibrated at a plurality of frequencies, and in which at least one electrical parameter of the vibrator is measured at the plurality of frequencies to provide a spectrum; wherein the scans are performed during the inhalations and during the periods preceding or succeeding the inhalations; • compare a spectrum obtained during an inhalation with a spectrum obtained during the period preceding or succeeding that inhalation; • determine whether liquid is present in the reservoir on the basis of the comparison of the spectra; and • cease to drive the vibrator if the controller determines that no liquid is present.
A fungicidal composition comprising: a) a fungicidal compound of the Formula b) at least one ionic surfactant; c) at least one nonionic surfactant; d) from 50 ± 5 g/L to 700 ± 70 g/L of benzyl acetate; e) at least one N,N-dialkylcarboxamide; and f) from 25 ± 2.5 g/L to 150 ± 15 g/L of at least one of a ketone and an alcohol selected from the group consisting of: cyclohexanone, acetophenone, 2-heptanone, 2-heptanol, oleyl alcohol, and 2-ethylhexanol. a) a fungicidal compound of the Formula b) at least one ionic surfactant; c) at least one nonionic surfactant; d) from 50 ± 5 g/L to 700 ± 70 g/L of benzyl acetate; e) at least one N,N-dialkylcarboxamide; and f) from 25 ± 2.5 g/L to 150 ± 15 g/L of at least one of a ketone and an alcohol selected from the group consisting of: cyclohexanone, acetophenone, 2-heptanone, 2-heptanol, oleyl alcohol, and 2-ethylhexanol.