mhurhangee/patent-ind-claim-en huggingface dataset:
An oral care appliance comprising: a cartridge comprising: a housing for storing an oral care composition ; a connection interface configured to form a detachable connection with the oral care appliance; and a valve assembly : (i) positioned in the connection interface ; (ii) comprising at least two valves (410a; 410b); and (iii) configured to prevent escape of the oral care composition when the connection interface is in a detached position and to allow flow of the oral care composition , through the at least two valves (410a; 410b) and the connection interface and to the oral care appliance, when the connection interface is in an attached position; and a base unit for use in the oral care appliance, comprising: a base connection interface to be plugged to the cartridge ; and a needle assembly operatively engageable to the cartridge to allow flow of the oral care composition from the cartridge into the oral care appliance; wherein the needle assembly is configured to interact with the valve assembly . a cartridge comprising: a housing for storing an oral care composition ; a connection interface configured to form a detachable connection with the oral care appliance; and a valve assembly : (i) positioned in the connection interface ; (ii) comprising at least two valves (410a; 410b); and (iii) configured to prevent escape of the oral care composition when the connection interface is in a detached position and to allow flow of the oral care composition , through the at least two valves (410a; 410b) and the connection interface and to the oral care appliance, when the connection interface is in an attached position; and a base unit for use in the oral care appliance, comprising: a base connection interface to be plugged to the cartridge ; and a needle assembly operatively engageable to the cartridge to allow flow of the oral care composition from the cartridge into the oral care appliance; wherein the needle assembly is configured to interact with the valve assembly .
A glycylcycline for use in the treatment of a subject infected with gram positive bacteria, wherein the glycylcycline is administered by inhalation, wherein the glycylcycline is tigecycline, wherein the subject is infected with a mycobacterium of the clade M. abscessus, or a subspecies thereof, and wherein the subject is infected with a pulmonary infection. wherein the glycylcycline is tigecycline, wherein the subject is infected with a mycobacterium of the clade M. abscessus, or a subspecies thereof, and wherein the subject is infected with a pulmonary infection.
A terminal comprising: a receiving section configured to receive, via higher layer signaling, first information indicating a gap offset in subframe units related to a measurement gap, MG, and second information indicating a shift time shorter than one subframe and related to the MG; and a control section configured to determine a timing of the MG based on the gap offset and the shift time, wherein the shift time can be a first shift time for a first frequency range, the shift time can be a second shift time for a second frequency range, the first shift time is different from the second shift time, and a frequency within the second frequency range is higher than a frequency within the first frequency range. a receiving section configured to receive, via higher layer signaling, first information indicating a gap offset in subframe units related to a measurement gap, MG, and second information indicating a shift time shorter than one subframe and related to the MG; and first information indicating a gap offset in subframe units related to a measurement gap, MG, and second information indicating a shift time shorter than one subframe and related to the MG; and a control section configured to determine a timing of the MG based on the gap offset and the shift time, wherein the shift time can be a first shift time for a first frequency range, the shift time can be a second shift time for a second frequency range, the first shift time is different from the second shift time, and a frequency within the second frequency range is higher than a frequency within the first frequency range.
Luminaire (1; 101), comprising a light generation device , a cooling body (3; 103), a reflector (4; 104) and an intermediate element (5; 105) ; the cooling body (3; 103) being coupled to the reflector (4; 104) so as to be pivotable about a pivot axis relative to the reflector (4; 104); the light generation device being arranged on the cooling body (3; 103) in such a way that light can be emitted into an interior of the reflector (4; 104) by the light generation device ; the intermediate element (5; 105) being mounted on the cooling body (3; 103) so as to be displaceable relative to the cooling body (3; 103); the intermediate element (5; 105) having at least one first portion provided with a toothing , and the reflector (4; 104) having at least one second portion provided with a toothing ; and an engagement of the toothings of the first and second portions in one another preventing pivoting of the cooling body (3; 103) about the pivot axis relative to the reflector (4; 104), and the toothings of the first and second portions being disengageable for pivoting of the cooling body (3; 103) about the pivot axle relative to the reflector (4; 104).
A fuel supply system for a road vehicle and comprising: a fuel tank , which is shaped like saddle due to the presence of a central saddle and delimits an inner volume divided into an upper area , which is located above the central saddle , and two lower areas , which are located under the upper area and are separated from one another by the central saddle ; two low-pressure fuel pumps , which are twin pumps, are operated by corresponding electric motors and each suck from the bottom of a corresponding lower area ; at least one high-pressure fuel pump , which receives fuel from both low-pressure fuel pumps ; and a first control unit , which is configured to control the electric motors of the two low-pressure fuel pumps ; wherein the two lower areas communicate with one another only and exclusively through the upper area , since there is not direct connection between the two lower areas on the outside of the fuel tank ; the supply system is characterized in that it comprises: a first level sensor arranged in the upper area and is configured to measure a fuel level only in the upper area ; and two second level sensors , each arranged in a respective lower area and configured to measure a fuel level only in the respective lower area . a fuel tank , which is shaped like saddle due to the presence of a central saddle and delimits an inner volume divided into an upper area , which is located above the central saddle , and two lower areas , which are located under the upper area and are separated from one another by the central saddle ; two low-pressure fuel pumps , which are twin pumps, are operated by corresponding electric motors and each suck from the bottom of a corresponding lower area ; at least one high-pressure fuel pump , which receives fuel from both low-pressure fuel pumps ; and a first control unit , which is configured to control the electric motors of the two low-pressure fuel pumps ; wherein the two lower areas communicate with one another only and exclusively through the upper area , since there is not direct connection between the two lower areas on the outside of the fuel tank ; the supply system is characterized in that it comprises: a first level sensor arranged in the upper area and is configured to measure a fuel level only in the upper area ; and two second level sensors , each arranged in a respective lower area and configured to measure a fuel level only in the respective lower area . a first level sensor arranged in the upper area and is configured to measure a fuel level only in the upper area ; and two second level sensors , each arranged in a respective lower area and configured to measure a fuel level only in the respective lower area .
An electron emitter comprising: an emitter body having a planar emitter surface formed by a plurality of planar elongate rungs connected together through a plurality of planar turns from a first emitter end to a second emitter end with each turn connecting adjacent ends of two corresponding rungs so as to form a planar serpentine emitter pattern; and a plurality of elongate legs extending from the plurality of planar turns ; characterized in that each leg includes a linker that is connected to a corresponding planar turn , and each linker connects two corner regions of the corresponding turn , each corner region being formed from an intersection of a planar elongate rung and a base of a planar turn . an emitter body having a planar emitter surface formed by a plurality of planar elongate rungs connected together through a plurality of planar turns from a first emitter end to a second emitter end with each turn connecting adjacent ends of two corresponding rungs so as to form a planar serpentine emitter pattern; and a plurality of elongate legs extending from the plurality of planar turns ; characterized in that each leg includes a linker that is connected to a corresponding planar turn , and each linker connects two corner regions of the corresponding turn , each corner region being formed from an intersection of a planar elongate rung and a base of a planar turn .
A system arrangement for use in an automobile for low latency and fail-safe command propagation allowing a targeted actuation of each of a plurality of client devices (CD) in real-time, comprising: - an initiator device (I) arranged to generate and initiate commands; - a series of branch devices (BD) communicatively coupled to the initiator device (I) via an Initiator Side Port (ISP), the series of branch devices (BD) being communicatively connected using a transmission medium; - the plurality of client devices (CD) being segmented into a plurality of serial branches each of at least two client devices (CD) along a branch type data line each branch being connected to respectively one branch device (BD), characterized in that each branch device (BD) directly provides commands generated and initiated by the initiator device (I) to respectively a first client device (CD) using a Client Side Port (CSP) of respectively one branch being connected with the branch device (BD) according to a configured mode (M0, M1, M2, ... , M6), wherein the command is further propagated to the at least one further client device (CD) via the Client Side Port (CSP) of the respective branch device (BD), the mode being configured as a function of the generated command and by a number of received link attention events, wherein the command provides an expiry condition of a mode after which the mode returns to its previous mode. - an initiator device (I) arranged to generate and initiate commands; - a series of branch devices (BD) communicatively coupled to the initiator device (I) via an Initiator Side Port (ISP), the series of branch devices (BD) being communicatively connected using a transmission medium; - the plurality of client devices (CD) being segmented into a plurality of serial branches each of at least two client devices (CD) along a branch type data line each branch being connected to respectively one branch device (BD), characterized in that each branch device (BD) directly provides commands generated and initiated by the initiator device (I) to respectively a first client device (CD) using a Client Side Port (CSP) of respectively one branch being connected with the branch device (BD) according to a configured mode (M0, M1, M2, ... , M6), wherein the command is further propagated to the at least one further client device (CD) via the Client Side Port (CSP) of the respective branch device (BD), the mode being configured as a function of the generated command and by a number of received link attention events, wherein the command provides an expiry condition of a mode after which the mode returns to its previous mode.
A positron detector for detecting instantaneous 82 Rb activity concentration of an active saline solution generated by an 82 Sr/ 82 Rb elution system, the positron detector comprising: a scintillation fiber disposed adjacent a feed line for conveying the active saline solution; a photon counter operatively coupled to the scintillation fiber for detecting photons generated by positron annihilation within the scintillation fiber ; and characterized in that a radiation shield surrounds the scintillation fiber and at least the portion of the feed line adjacent the scintillation fiber , for shielding at least the scintillation fiber from spurious radiation. a scintillation fiber disposed adjacent a feed line for conveying the active saline solution; a photon counter operatively coupled to the scintillation fiber for detecting photons generated by positron annihilation within the scintillation fiber ; and characterized in that a radiation shield surrounds the scintillation fiber and at least the portion of the feed line adjacent the scintillation fiber , for shielding at least the scintillation fiber from spurious radiation.
Hydraulic noise damper for reducing water-borne noise in an object to be introduced into an underwater soil , wherein the hydraulic noise damper has an upper end and a lower end situated opposite to the upper end , wherein lateral flanks extend between the upper end and the lower end , wherein the hydraulic noise damper can be divided along the lateral flanks and is movable between a closed position and an open position and has at least one support structure whose lower end is fixed movably relative to at least one base element , wherein the hydraulic noise damper has mutually spaced-apart noise reduction elements fastened to the at least one support structure , wherein the support structure is formed from a row of multiple parallel vertical cables and/or mesh strips and/or mesh hoses which are equipped with the noise reduction elements and/or from a mesh, characterized in that the hydraulic noise damper has support structures in the form of cages for the sound reduction elements , wherein the cages have a telescopic design.
A device for pumping water from a great depth, comprising a support structure , for example comprising at least two, preferably three or more, cables, and a plurality of longitudinal elements forming a pipe inside which circulates water pumped from a great depth, in which the longitudinal elements are individually mounted in a secure manner on the support structure and are connected together by sealing means , wherein each longitudinal element comprises a pipe section and an attachment assembly allowing mounting the pipe section on the support structure , wherein the attachment assembly is mounted on the pipe section by first pivot connections , and/or wherein the attachment assembly includes a first peripheral element with means for attachment to the support structure, and a second peripheral element mounted between the pipe section and the first peripheral element , the second peripheral element being mounted on the first peripheral element by second pivot connections , and wherein the second pivot connections between the first peripheral element and the second peripheral element and the first pivot connections between the second peripheral element and the pipe section are distributed on the periphery of the pipe section .
A container assembly comprising at least one first container and at least one second container , detachably attachable to one another by a sliding locking mechanism ; said sliding locking mechanism interacts between the at least one first container and at least one second container, wherein the at least one first container is configured at a top portion thereof with a first locking member and the at least one second container is configured at a bottom portion thereof with a second locking member; such that when the second container rests over the first container, said first locking member and said second locking member are aligned and are configured for lockingly interacting with one another, wherein the sliding locking mechanism comprises a sliding unit that comprises a slider member and at least one arresting member, the sliding unit being configured at one of the first container and the second container, and constitutes one of said first locking member and said second locking member; and a corresponding at least one static locking element configured at the other of the first container and the second container and constituting the other one of said first locking member and said second locking member, the slider member being snapingly displaceable between a locked position and an unlocked position, characterised in that the first locking member and the second locking member substantially do not project beyond or below a respective top most edge and a bottom most edge of the respective first container and second container. a sliding unit that comprises a slider member and at least one arresting member, the sliding unit being configured at one of the first container and the second container, and constitutes one of said first locking member and said second locking member; and a corresponding at least one static locking element configured at the other of the first container and the second container and constituting the other one of said first locking member and said second locking member, the slider member being snapingly displaceable between a locked position and an unlocked position, characterised in that the first locking member and the second locking member substantially do not project beyond or below a respective top most edge and a bottom most edge of the respective first container and second container.
A vehicular airbag device comprising an airbag which opens an airbag door openably sealing an opening formed on an instrument panel , which deploys and expands rearward in a vehicle longitudinal direction from the opening toward an occupant sitting on a front seat of a vehicle, and which catches the occupant while being supported by the instrument panel , wherein an outer shape of the airbag when fully deployed and expanded is line-symmetrical with respect to a center line of the opening in a vehicle left-right width direction, and a width dimension (#WB) in the vehicle width direction at a rear edge position of the instrument panel in the vehicle longitudinal direction is greater than a width dimension (#WC) in the vehicle width direction at a center position of the opening in the vehicle longitudinal direction which is more forward in the vehicle longitudinal direction than the rear edge position of the instrument panel , characterized in that the width dimension (#WB) in the vehicle width direction at the rear edge position of the instrument panel and the width dimension (#WC) in the vehicle width direction at the center position (Z1) of the opening in the vehicle longitudinal direction which is more forward in the vehicle longitudinal direction than the rear edge position of the instrument panel are both greater than a maximum width dimension in the vehicle width direction at a vertical section (#RL3) including an apex position of the airbag which is more rearward in the vehicle longitudinal direction than the rear edge position of the instrument panel .
A medical imaging apparatus comprising: a solid-state image sensor that includes a photoelectric converter having at least two photoelectric conversion layers stacked with respect to a light-receiving surface and separating received light into light of different wavelength bands; circuitry configured to control a light source device that illuminates a subject; wherein the photoelectric converter includes a first photoelectric conversion layer detecting light corresponding to a first wavelength band and a second photoelectric conversion layer detecting light corresponding to a second wavelength band, and wherein the circuitry is configured to control light emission of the light source device corresponding to the first wavelength band and the second wavelength band at a first timing, and to control the light emission of the light source device corresponding to a third wavelength band at a second timing, in synchronization with the imaging timing of the solid-state image sensor, the third wavelength band being an overlapping portion of the first and second wavelength bands. a solid-state image sensor that includes a photoelectric converter having at least two photoelectric conversion layers stacked with respect to a light-receiving surface and separating received light into light of different wavelength bands; circuitry configured to control a light source device that illuminates a subject; wherein the photoelectric converter includes a first photoelectric conversion layer detecting light corresponding to a first wavelength band and a second photoelectric conversion layer detecting light corresponding to a second wavelength band, and wherein the circuitry is configured to control light emission of the light source device corresponding to the first wavelength band and the second wavelength band at a first timing, and to control the light emission of the light source device corresponding to a third wavelength band at a second timing, in synchronization with the imaging timing of the solid-state image sensor, the third wavelength band being an overlapping portion of the first and second wavelength bands.
A compounder system , comprising: a cartridge having a plurality of controllable fluid pathways fluidly coupled to at least a waste port and an output port ; dual-lumen tubing coupled, at a first end, to the output port ; and characterized by an air in-line sensor configured to monitor for air in a fluid line of the dual-lumen tubing . a cartridge having a plurality of controllable fluid pathways fluidly coupled to at least a waste port and an output port ; dual-lumen tubing coupled, at a first end, to the output port ; and characterized by an air in-line sensor configured to monitor for air in a fluid line of the dual-lumen tubing .
A microspheric ionomer having a cross-linked structure, characterized in that the ionomer comprises a structure unit A represented by formula , a structure unit B represented by formula and a cross-linking structural unit provided by a cross-linking agent, wherein, M 1 and M 2 are each independently selected from the group consisting of H, a metal cation, and a linear, branched or cyclic C 1 -C 20 saturated alkyl group preferably selected from the group consisting of methyl, ethyl, n-propyl, isopropyl, tert-butyl, n-butyl, isobutyl, n-pentyl, n-hexyl, n-heptyl, n-octyl, 2-methylbutyl, 3-methylbutyl, cyclohexyl, n-nonyl, isononyl, decyl, 2-propylheptyl, 2-ethylhexyl, dodecyl, tetradecyl, cetyl and stearyl; and R is H or methyl; and at least part of the structure units A in the ionomer comprises the metal cation. M 1 and M 2 are each independently selected from the group consisting of H, a metal cation, and a linear, branched or cyclic C 1 -C 20 saturated alkyl group preferably selected from the group consisting of methyl, ethyl, n-propyl, isopropyl, tert-butyl, n-butyl, isobutyl, n-pentyl, n-hexyl, n-heptyl, n-octyl, 2-methylbutyl, 3-methylbutyl, cyclohexyl, n-nonyl, isononyl, decyl, 2-propylheptyl, 2-ethylhexyl, dodecyl, tetradecyl, cetyl and stearyl; and R is H or methyl; and at least part of the structure units A in the ionomer comprises the metal cation.