mhurhangee/patent-ind-claim-en huggingface dataset:
The racemic mixture of (R)-ornidazole and (S)-ornidazole [rac-ornidazole], or pharmaceutically acceptable salts thereof, for use in the treatment of an anaerobic bacterial infection involving a biofilm in adult patients, wherein said bacterial infection is associated with a dysbiosis of a microbial microbiome in a disease selected from Glanders and Melioidosis infections, wherein the Glanders and Melioidosis infections are caused by biofilms of Burkholderia mallei or Burkholderia pseudomallei and at least some of the bacteria are present in an anaerobic configuration , wherein the daily dose for oral or parenteral administration is from 0.25 g/day to 8.0 g/day, wherein the racemic mixture or pharmaceutically acceptable salts thereof is administered orally in the form of tablets, capsules, syrups, powders or granules; or by parenteral administration in the form of a sterile solution, suspension or emulsion for injection.
Inductive component, comprising a winding and a plurality of adjustment bodies (4, 4_1, 4_2, 4_n) for adjusting an inductance (L) of the inductive component , wherein the adjustment bodies (4, 4_1, 4_2, 4_n) comprise a ferromagnetic material and surround at least a portion of the winding , wherein the inductance (L) is adjusted via the shape and/or position and/or number of adjustment bodies (4, 4_1, 4_2, 4_n), characterized in that a filling body (8_1, 8_2, 8_n) comprising a non-magnetic material is disposed between at least two of the adjustment bodies (4_1, 4_2, 4_n).
A pillar-shaped Luneberg lens antenna , comprising two metal plates parallel to each other and a pillar-shaped Luneberg lens disposed between the two metal plates , wherein the pillar-shaped Luneberg lens comprises a main layer and a compensation layer that are of the pillar-shaped Luneberg lens , and the compensation layer is configured to compensate for equivalent dielectric constants of the main layer of the pillar-shaped Luneberg lens in a TEM mode and/or a TE10 mode, so that the distribution of equivalent dielectric constants of the pillar-shaped Luneberg lens in the TEM mode and the TE10 mode is consistent with the distribution of preset dielectric constants of a classic Luneberg lens which is a spherical lens with a graded refractive index n = 2 − r / R 2 , wherein r is a distance from each dielectric part in the classic Luneberg lens to a sphere center of the classic Luneberg lens, and R is a radius of the classic Luneberg lens ; when the distribution of the equivalent dielectric constants of the pillar-shaped Luneberg lens in the TEM mode is consistent with the distribution of the preset dielectric constants, the pillar-shaped Luneberg lens antenna is configured to support polarization in a direction vertical to the metal plate ; and when the distribution of the equivalent dielectric constants of the pillar-shaped Luneberg lens in the TE10 mode is consistent with the distribution of the preset dielectric constants, the pillar-shaped Luneberg lens antenna is configured to support polarization in a direction parallel to the metal plate . the pillar-shaped Luneberg lens comprises a main layer and a compensation layer that are of the pillar-shaped Luneberg lens , and the compensation layer is configured to compensate for equivalent dielectric constants of the main layer of the pillar-shaped Luneberg lens in a TEM mode and/or a TE10 mode, so that the distribution of equivalent dielectric constants of the pillar-shaped Luneberg lens in the TEM mode and the TE10 mode is consistent with the distribution of preset dielectric constants of a classic Luneberg lens which is a spherical lens with a graded refractive index n = 2 − r / R 2 , wherein r is a distance from each dielectric part in the classic Luneberg lens to a sphere center of the classic Luneberg lens, and R is a radius of the classic Luneberg lens ; when the distribution of the equivalent dielectric constants of the pillar-shaped Luneberg lens in the TEM mode is consistent with the distribution of the preset dielectric constants, the pillar-shaped Luneberg lens antenna is configured to support polarization in a direction vertical to the metal plate ; and when the distribution of the equivalent dielectric constants of the pillar-shaped Luneberg lens in the TE10 mode is consistent with the distribution of the preset dielectric constants, the pillar-shaped Luneberg lens antenna is configured to support polarization in a direction parallel to the metal plate .
A method of wireless communication, the method comprising: receiving , by a user equipment, UE, , reference signal configuration information from a base station , wherein the received reference signal configuration information further comprises one or more preferred precoding schemes for transmitting one or more reference signals; configuring one or more uplink antenna ports of the UE based on the received reference signal configuration information; and transmitting , by the UE , the one or more reference signals to the base station on the one or more uplink antenna ports in accordance with the received reference signal configuration information. receiving , by a user equipment, UE, , reference signal configuration information from a base station , wherein the received reference signal configuration information further comprises one or more preferred precoding schemes for transmitting one or more reference signals; configuring one or more uplink antenna ports of the UE based on the received reference signal configuration information; and transmitting , by the UE , the one or more reference signals to the base station on the one or more uplink antenna ports in accordance with the received reference signal configuration information.
A method, performed by a terminal (1h-20), in a wireless communication system, the method comprising: receiving, from a source base station (1h-05), a control message for a handover, the control message including first information indicating that a data radio bearer, DRB, is configured to a dual active protocol stack, DAPS, handover; and in case that the control message further includes second information on a service data adaptation protocol, SDAP, entity associated with the DRB, and a random access procedure on a target base station (1h-10) is successfully complete, reconfiguring the SDAP entity based on the second information on the SDAP entity. receiving, from a source base station (1h-05), a control message for a handover, the control message including first information indicating that a data radio bearer, DRB, is configured to a dual active protocol stack, DAPS, handover; and in case that the control message further includes second information on a service data adaptation protocol, SDAP, entity associated with the DRB, and a random access procedure on a target base station (1h-10) is successfully complete, reconfiguring the SDAP entity based on the second information on the SDAP entity.
A blower comprising: a housing including a handle operably coupled thereto; a motor ; a blower tube defining a tube axis and a fan assembly operably coupled to the motor to force air through the blower tube responsive to operation of the motor ; characterized in that: the fan assembly is provided in an outlet tube corresponding to the blower tube , and air is fed to the fan assembly via an inlet tube spaced apart from the outlet tube such that the outlet tube and inlet tube are operably coupled to each other via an acoustic chamber defined by the housing . a housing including a handle operably coupled thereto; a motor ; a blower tube defining a tube axis and a fan assembly operably coupled to the motor to force air through the blower tube responsive to operation of the motor ; characterized in that: the fan assembly is provided in an outlet tube corresponding to the blower tube , and air is fed to the fan assembly via an inlet tube spaced apart from the outlet tube such that the outlet tube and inlet tube are operably coupled to each other via an acoustic chamber defined by the housing .
A lighting assembly comprising - an LED assembly comprising three or more LED units , each LED unit comprising one or more LEDs, the LED assembly further comprising a switch assembly comprising controllable switches (T1, T2, T3) for modifying a topology of the LED assembly, the LED assembly, in use, being powered from a supply voltage (V), - a control unit comprising an input terminal arranged to receive a signal representing a voltage level of the supply voltage and an output terminal for providing a control signal to the switch assembly to control the switch assembly in accordance with the signal representing the voltage level of the supply voltage, thereby modifying the topology of the LED assembly, wherein the supply voltage comprises a periodic voltage, the control unit being arranged to synchronize the control signal with the periodic voltage, and - wherein the control unit is arranged to control the switch assembly to change an interconnection of the LED units in accordance with the signal representing the voltage level of the supply voltage, characterized in that the control unit is arranged to thereby control the switch assembly to change from series to parallel connections of the LED units as the supply voltage decreases. - an LED assembly comprising three or more LED units , each LED unit comprising one or more LEDs, the LED assembly further comprising a switch assembly comprising controllable switches (T1, T2, T3) for modifying a topology of the LED assembly, the LED assembly, in use, being powered from a supply voltage (V), - a control unit comprising an input terminal arranged to receive a signal representing a voltage level of the supply voltage and an output terminal for providing a control signal to the switch assembly to control the switch assembly in accordance with the signal representing the voltage level of the supply voltage, thereby modifying the topology of the LED assembly, wherein the supply voltage comprises a periodic voltage, the control unit being arranged to synchronize the control signal with the periodic voltage, and - wherein the control unit is arranged to control the switch assembly to change an interconnection of the LED units in accordance with the signal representing the voltage level of the supply voltage, characterized in that the control unit is arranged to thereby control the switch assembly to change from series to parallel connections of the LED units as the supply voltage decreases.
A build material source container for use in a material management station of a three dimensional, 3D, printer, the source container defining a substantially enclosed space for holding build material and having an aperture for build material ingress and egress; wherein at least part of the build material source container is formed from an electrically conductive material; wherein the conductive material portion of the build material source container is connectable to Earth to discharge static electricity generated within the build material source container; wherein the aperture is part of an outlet structure connectable to a connection unit for extracting build material from the source container by means of air pressure; the outlet structure comprises an adapter to couple to a first end portion of the connection unit, characterised in that the adapter comprises at least one electrically conductive interconnector to electrically couple an electrically conductive portion of the build material source container to an electrically conductive portion of the connection unit; wherein the adapter when connected to the connection unit forms part of a static electricity discharge path; wherein the interconnector further secures the adapter to build material source container ; or the interconnector connects the adapter to the first end portion of the connection unit. wherein at least part of the build material source container is formed from an electrically conductive material; wherein the conductive material portion of the build material source container is connectable to Earth to discharge static electricity generated within the build material source container; wherein the aperture is part of an outlet structure connectable to a connection unit for extracting build material from the source container by means of air pressure; the outlet structure comprises an adapter to couple to a first end portion of the connection unit, characterised in that the adapter comprises at least one electrically conductive interconnector to electrically couple an electrically conductive portion of the build material source container to an electrically conductive portion of the connection unit; wherein the adapter when connected to the connection unit forms part of a static electricity discharge path; wherein the interconnector further secures the adapter to build material source container ; or the interconnector connects the adapter to the first end portion of the connection unit.
A positive electrode active material for a secondary battery, comprising: a lithium composite transition metal oxide comprising nickel (Ni), wherein the lithium composite transition metal oxide is represented by Formula 1, and wherein the lithium composite transition metal oxide satisfies Equation 1 and Equation 2: 80 nm ≤ crystallite size FWHM ≤ 150 nm Δ size crystallite size IB − crystallite size FWHM ≤ 20 wherein, in Equation 1 and Equation 2, crystallite size FWHM is a crystallite size obtained by calculating from X-ray diffraction (XRD) data using a full width at half maximum (FWHM) method, and crystallite size IB is a crystallite size obtained by calculating from XRD data using an integral breadth (IB) method; [Formula 1] Li a Ni 1-(x+y+z) Co x M' y M" z O 2+δ wherein, in Formula 1, M' is at least one selected from the group consisting of Mn and Al, M" is at least one selected from the group consisting of barium (Ba), calcium (Ca), zirconium (Zr), titanium (Ti), magnesium (Mg), tantalum (Ta), niobium (Nb), and molybdenum (Mo), 1.0≤a≤1.5, x<y, 0≤z≤0.1, 0.2≤x+y+z≤0.4, and 0≤δ≤1.0. a lithium composite transition metal oxide comprising nickel (Ni), wherein the lithium composite transition metal oxide is represented by Formula 1, and wherein the lithium composite transition metal oxide satisfies Equation 1 and Equation 2: 80 nm ≤ crystallite size FWHM ≤ 150 nm Δ size crystallite size IB − crystallite size FWHM ≤ 20 wherein, in Equation 1 and Equation 2, crystallite size FWHM is a crystallite size obtained by calculating from X-ray diffraction (XRD) data using a full width at half maximum (FWHM) method, and crystallite size IB is a crystallite size obtained by calculating from XRD data using an integral breadth (IB) method; [Formula 1] Li a Ni 1-(x+y+z) Co x M' y M" z O 2+δ wherein, in Formula 1, M' is at least one selected from the group consisting of Mn and Al, M" is at least one selected from the group consisting of barium (Ba), calcium (Ca), zirconium (Zr), titanium (Ti), magnesium (Mg), tantalum (Ta), niobium (Nb), and molybdenum (Mo), 1.0≤a≤1.5, x<y, 0≤z≤0.1, 0.2≤x+y+z≤0.4, and 0≤δ≤1.0.
A custom tool for forming a dental restoration in a mouth of a patient, the custom tool comprising: a facial mold body for a patient-specific, customized fit with the facial side of at least one tooth of the patient, wherein the facial mold body includes a restorative portion , at least one aperture aligned with a portion of a surface of a tooth to be restored and at least one door having an inner surface forming a portion of a mold cavity encompassing missing tooth structure of the tooth to be restored, wherein the door mates with the aperture; a lingual mold body for a patient-specific, customized fit with the lingual side of the tooth of the patient, wherein the lingual mold body includes a restorative portion ; wherein the facial mold body and lingual mold body are configured to interlock together; and wherein the facial mold body and lingual mold body are configured to combine with the tooth of the patient to form the mold cavity encompassing missing tooth structure of at least one tooth to be restored, wherein the at least one door includes a two-part hinge for attachment to the lingual mold body or the facial mold body, wherein the hinge includes a first portion with a first diameter and a second portion with a second diameter larger than the first diameter, and wherein the door includes a hinge pin moveable between the first portion and the second portion. a facial mold body for a patient-specific, customized fit with the facial side of at least one tooth of the patient, wherein the facial mold body includes a restorative portion , at least one aperture aligned with a portion of a surface of a tooth to be restored and at least one door having an inner surface forming a portion of a mold cavity encompassing missing tooth structure of the tooth to be restored, wherein the door mates with the aperture; a lingual mold body for a patient-specific, customized fit with the lingual side of the tooth of the patient, wherein the lingual mold body includes a restorative portion ; wherein the facial mold body and lingual mold body are configured to interlock together; and wherein the facial mold body and lingual mold body are configured to combine with the tooth of the patient to form the mold cavity encompassing missing tooth structure of at least one tooth to be restored, wherein the at least one door includes a two-part hinge for attachment to the lingual mold body or the facial mold body, wherein the hinge includes a first portion with a first diameter and a second portion with a second diameter larger than the first diameter, and wherein the door includes a hinge pin moveable between the first portion and the second portion.
A method of imaging an object with ultrasound energy, the method comprising the steps of: transmitting an un-focused ultrasound signal into a target medium from an apparent point-source transmit transducer comprising a shell of piezoelectric material shaped as a spherical section that is convex with respect to the target medium with a spherical center point; receiving echoes reflected by a reflector in the target medium with a plurality of omnidirectional receive elements in a common receive aperture that are different than the apparent point-source transmit transducer; determining a position of the reflector within the target medium by obtaining element position data describing a position of the spherical center point of the apparent point-source transmit transducer and a plurality of positions of the plurality of receive elements, calculating a total path distance for each of the plurality of receive elements as a sum of a first distance between the spherical center point and the reflector and a second distance between the reflector and each receive element, wherein the total path distance comprises an apparent path segment representing a distance from the convex transmit transducer surface of the apparent point-source transmit transducer to the spherical center point, determining a locus of possible points at which the reflector may lie and combining the determined loci of possible points from multiple transmit-receive transducer combinations to more accurately represent the actual position of the reflector; and producing an image of the reflector based on the determined position of the reflector. transmitting an un-focused ultrasound signal into a target medium from an apparent point-source transmit transducer comprising a shell of piezoelectric material shaped as a spherical section that is convex with respect to the target medium with a spherical center point; receiving echoes reflected by a reflector in the target medium with a plurality of omnidirectional receive elements in a common receive aperture that are different than the apparent point-source transmit transducer; determining a position of the reflector within the target medium by obtaining element position data describing a position of the spherical center point of the apparent point-source transmit transducer and a plurality of positions of the plurality of receive elements, calculating a total path distance for each of the plurality of receive elements as a sum of a first distance between the spherical center point and the reflector and a second distance between the reflector and each receive element, wherein the total path distance comprises an apparent path segment representing a distance from the convex transmit transducer surface of the apparent point-source transmit transducer to the spherical center point, determining a locus of possible points at which the reflector may lie and combining the determined loci of possible points from multiple transmit-receive transducer combinations to more accurately represent the actual position of the reflector; and producing an image of the reflector based on the determined position of the reflector.
A system for thrombus detection and/or removal from a blood pump comprising: a housing including an inlet cannula , the inlet cannula having an inner tube ; a rotor disposed within the housing , the rotor being in fluid communication with the inlet cannula ; a stator disposed within the housing, the stator configured to rotate the rotor when a current is applied to the stator ; and characterised by a flexible circuit assembly disposed within the housing , the flexible circuit assembly including at least one of the group consisting of a plurality of light emitters and a plurality of ultrasound emitters . a housing including an inlet cannula , the inlet cannula having an inner tube ; a rotor disposed within the housing , the rotor being in fluid communication with the inlet cannula ; a stator disposed within the housing, the stator configured to rotate the rotor when a current is applied to the stator ; and characterised by a flexible circuit assembly disposed within the housing , the flexible circuit assembly including at least one of the group consisting of a plurality of light emitters and a plurality of ultrasound emitters .
Method for producing packaging having a modified atmosphere, in which method an upper film is sealed onto a packaging tray , wherein - prior to sealing, first of all a negative pressure is generated in the packaging tray and thereafter a replacement gas is directed into the packaging tray; or - the atmosphere situated in the packaging tray is purged from the packaging by way of the replacement gas; or - only a negative pressure is generated in the packaging; and in which method, after and/or downstream of sealing, measuring of the concentration of at least one component part of the modified atmosphere and/or the pressure of the latter takes place by way of a sensor , characterized in that the signal of the sensor is used for determining the nominal negative pressure and/or the nominal pressure upon introduction of the replacement gas and/or the nominal quantity of replacement gas. - prior to sealing, first of all a negative pressure is generated in the packaging tray and thereafter a replacement gas is directed into the packaging tray; or - the atmosphere situated in the packaging tray is purged from the packaging by way of the replacement gas; or - only a negative pressure is generated in the packaging;
Overload identification for a bar-type chassis component, comprising a sensor which detects a target state variable of the chassis component , wherein the sensor is designed as a deformation-detecting sensor for an individual chassis component and the sensor comprises a plurality of individual sensors , wherein the individual sensors form a cage , characterized in that the cage has an annular fastening section by way of which the cage is held at one end on the chassis component in the longitudinal direction of the chassis component .