mhurhangee/patent-ind-claim-en huggingface dataset:
A method for making a pulsatile delivery device, the method comprising: generating one type of charge on a polymeric layer; generating charges opposite the one type of charge on a delivery layer, the delivery layer including a film forming material and a predetermined substance dispersed throughout the film forming material; placing the charged polymeric layer and delivery layer in contact to form a bi-layer structure; forming a stack with at least two bi-layer structures so that the polymeric layers and the delivery layers are alternating throughout the stack; and sealing the stack so that one of the polymeric layers remains exposed. generating one type of charge on a polymeric layer; generating charges opposite the one type of charge on a delivery layer, the delivery layer including a film forming material and a predetermined substance dispersed throughout the film forming material; placing the charged polymeric layer and delivery layer in contact to form a bi-layer structure; forming a stack with at least two bi-layer structures so that the polymeric layers and the delivery layers are alternating throughout the stack; and sealing the stack so that one of the polymeric layers remains exposed.
Single line for a charging cable , comprising a) an open support structure with a longitudinal extent, b) a conductor netting of conductors and c) an insulation , wherein d) the conductor netting envelops the open support structure directly along its longitudinal extent and e) the insulation envelops the open support structure and the conductor netting and f) there is at least one channel for a cooling fluid and this channel is formed by the support structure and the conductor netting , and g) wherein the conductor netting is in particular permeable for the cooling fluid and h) wherein the insulation is impermeable for the cooling fluid and is electrically insulating, characterised in that i) the conductor netting is along its longitudinal extent surrounded by further conductors which are in electrical contact with the conductor netting , wherein the further conductors either are themselves formed as one or several netting/s which are arranged coaxially around the conductor netting or are twisted around the conductor netting , j) and wherein the open support structure is an elongate structure whose convex envelope has the shape of a cylinder, wherein at least one through-channel, i. e. a channel that is not interrupted by the structure, extends along and within the convex envelope. a) an open support structure with a longitudinal extent, b) a conductor netting of conductors and c) an insulation , wherein d) the conductor netting envelops the open support structure directly along its longitudinal extent and e) the insulation envelops the open support structure and the conductor netting and f) there is at least one channel for a cooling fluid and this channel is formed by the support structure and the conductor netting , and g) wherein the conductor netting is in particular permeable for the cooling fluid and h) wherein the insulation is impermeable for the cooling fluid and is electrically insulating, characterised in that i) the conductor netting is along its longitudinal extent surrounded by further conductors which are in electrical contact with the conductor netting , wherein the further conductors either are themselves formed as one or several netting/s which are arranged coaxially around the conductor netting or are twisted around the conductor netting , j) and wherein the open support structure is an elongate structure whose convex envelope has the shape of a cylinder, wherein at least one through-channel, i. e. a channel that is not interrupted by the structure, extends along and within the convex envelope.
Method for manufacturing a booklet which has a cover sheet and an inner part containing at least one further sheet, in which, after the booklet has been supplied, its cover sheet and its inner part are folded away from one another for processing the cover sheet and/or inner part and are brought together again after processing, characterised in that after provision of the booklet , its cover sheet is held in the provision plane and its inner part is folded away downwards, the cover sheet being trimmed with the inner part folded away downwards.
An ink jet head unit (1;100) comprising: an ink ejector including nozzles for ejecting ink; and a holder that holds the ink ejector in a predetermined positional relationship; wherein the holder includes three abutment faces for determining a fixing position and a fixing angle with respect to a predetermined fixing member in a plane parallel to an ink ejection surface having openings of the nozzles; and wherein adjustment plates that make an adjustment according to a positional shift amount of the ink ejector with respect to the holder are bonded to the respective abutment faces . an ink ejector including nozzles for ejecting ink; and a holder that holds the ink ejector in a predetermined positional relationship; wherein the holder includes three abutment faces for determining a fixing position and a fixing angle with respect to a predetermined fixing member in a plane parallel to an ink ejection surface having openings of the nozzles; and wherein adjustment plates that make an adjustment according to a positional shift amount of the ink ejector with respect to the holder are bonded to the respective abutment faces .
An aerosol delivery device configured to yield an inhalable substance, the aerosol delivery device comprising: a control body having a closed distal end and an open engaging end; a heating member; a control component located within the control body and configured to control the heating member ; a power source located within the control body and configured to provide power to the control component ; and a removable aerosol source member that includes an inhalable substance medium , the aerosol source member being inserted into the engaging end of the control body and defining a heated end and a mouth end , the heated end being positioned proximate the heating member , and the mouth end extending beyond the engaging end of the control body , wherein the heating member is configured to provide heat to at least a portion of the aerosol source member so as to form an inhalable aerosol, and wherein the heating member comprises a base heating member and a substrate heating member , wherein the base heating member is located in the control body and the substrate heating member is located in the aerosol source member , and characterised in that the base heating member includes one or more locating features engaging with corresponding locating features of the substrate heating member . a control body having a closed distal end and an open engaging end; a heating member; a control component located within the control body and configured to control the heating member ; a power source located within the control body and configured to provide power to the control component ; and a removable aerosol source member that includes an inhalable substance medium , the aerosol source member being inserted into the engaging end of the control body and defining a heated end and a mouth end , the heated end being positioned proximate the heating member , and the mouth end extending beyond the engaging end of the control body , wherein the heating member is configured to provide heat to at least a portion of the aerosol source member so as to form an inhalable aerosol, and wherein the heating member comprises a base heating member and a substrate heating member , wherein the base heating member is located in the control body and the substrate heating member is located in the aerosol source member , and characterised in that the base heating member includes one or more locating features engaging with corresponding locating features of the substrate heating member .
A workpiece unit , comprising: a workpiece body and a holding member arranged on at least one part of a circumferential portion of the workpiece body, wherein the workpiece body comprises at least one first positioning portion at a part facing the holding member, and the holding member comprises a second positioning portion engaged with at least one part of the first positioning portion , wherein the first positioning portion portion has a concave shape or a convex shape, the second positioning portion has a shape which is fitted or engaged with the first positioning portion , at least one part of either of the first positioning portion portion or the second positioning portion is fitted or engaged with at least one part of the other one, the workpiece body itself comprises a projecting portion projecting from the circumferential portion, the first positioning portion is arranged on the projecting portion, and the holding member is arranged in at least the projection direction of the projecting portion; the workpiece body is integrated with the holding member ; when holding or fixing the workpiece unit to a processing apparatus, at least the holding member is held to the processing apparatus; and information is added to the holding member. a workpiece body and a holding member arranged on at least one part of a circumferential portion of the workpiece body, wherein the workpiece body comprises at least one first positioning portion at a part facing the holding member, and the holding member comprises a second positioning portion engaged with at least one part of the first positioning portion , wherein the first positioning portion portion has a concave shape or a convex shape, the second positioning portion has a shape which is fitted or engaged with the first positioning portion , at least one part of either of the first positioning portion portion or the second positioning portion is fitted or engaged with at least one part of the other one, the workpiece body itself comprises a projecting portion projecting from the circumferential portion, the first positioning portion is arranged on the projecting portion, and the holding member is arranged in at least the projection direction of the projecting portion; the workpiece body is integrated with the holding member ; when holding or fixing the workpiece unit to a processing apparatus, at least the holding member is held to the processing apparatus; and information is added to the holding member.
A membrane module comprising a plurality of porous membranes, and a device for said membrane module for providing a randomly generated, pulsed fluid flow, wherein the device comprises a pulsed gas-lift pump device provided below a distribution chamber and in fluid communication therewith, attached to a supply of gas, the gas-lift pump device comprising an inverted chamber open at its lower end and having a gas inlet port adjacent its upper end for collecting and storing gas and a riser tube extending through the inverted chamber, the riser tube fluidly connected to the base of the distribution chamber and open at its lower end and having an opening or openings partway along its length, and a tubular trough located below the openings(s) and extending around and upward from the riser tube at a location below the opening(s), wherein the fluid flow comprises a gas flow and wherein the pulsed fluid flow is random in magnitude and/or frequency and/or duration, such that, in use, said fluid flow moves through the riser tube and past the surfaces of said membranes to dislodge fouling materials therefrom.
A microelectromechanical system (MEMS) apparatus comprising: a substrate having a top surface ; an inertial sensor comprising a proof mass coupled to the substrate, the inertial sensor being configured to sense motion of the proof mass along at least one axis; and an energy harvester comprising a piezoelectric material layer formed between the substrate and the proof mass, wherein the piezo electric material layer is configured to produce an electric signal in response to motion of the proof mass relative to the top surface of the substrate; characterised in that : the piezoelectric material layer is formed on a beam disposed between the proof mass and the substrate. a substrate having a top surface ; an inertial sensor comprising a proof mass coupled to the substrate, the inertial sensor being configured to sense motion of the proof mass along at least one axis; and an energy harvester comprising a piezoelectric material layer formed between the substrate and the proof mass, wherein the piezo electric material layer is configured to produce an electric signal in response to motion of the proof mass relative to the top surface of the substrate; characterised in that : the piezoelectric material layer is formed on a beam disposed between the proof mass and the substrate.
Door for a motor vehicle with a door body , a window opening which is delimited by a window frame and on an underside by the door body , and a height-adjustable window pane which is attached to a shaft strip between an open position that is at least partially recessed in the door body and a closed position that covers the window opening, the window pane being movable between the slot strip lying on its outside and on its inside above and is clamped below the shaft strip bearing surfaces and of the bearing surfaces and the shaft strip at least one is elastically resilient, the adjustable window pane being framed laterally by guide rails of the window frame which extend in its direction of adjustment, characterized in that one of the guide rails with a L- or Z-shaped cross section with approximately right angles clashing legs is performed, wherein the one Leg the inner leg and the other leg the base bar of the professional guide upwards over the belt line addition extended and one of the legs on the way Window pane forms a further contact surface for the window pane in the closed position, to which the window pane is always fixed is pressed, so that it does not lose contact with the leg under the influence of the wind.
A method comprising: creating a network slice in a segment routing, SR, communication network , wherein the network slice is instantiated using an Interior Gateway Protocol, IGP, flexible algorithm or a Border Gateway Protocol, BGP, flexible algorithm ; the method being characterized by wherein a dedicated queue is created for the data packets associated with the network slice at a first node of the SR communication network ; dedicating a portion of bandwidth of a link between the first node and a second node of the SR communication network to the network slice ; provisioning the portion of bandwidth of the link to the dedicated queue corresponding to the network slice ; creating a resource guaranteed adjacency Segment Routing Identifier, SID, for the network slice ; advertising the resource guaranteed adjacency SID to the SR communication network using the IGPflexible algorithm or the BGPflexible algorithm , wherein advertising the resource guaranteed adjacencySID to the SR communication network comprises advertising the resource guaranteed adjacencySI D with the dedicated portion of bandwidth of the link corresponding to the network slice ; and routing , at the first node , data packets associated with the network slice using the dedicated portion of bandwidth of the link and the dedicated queue. creating a network slice in a segment routing, SR, communication network , wherein the network slice is instantiated using an Interior Gateway Protocol, IGP, flexible algorithm or a Border Gateway Protocol, BGP, flexible algorithm ; the method being characterized by wherein a dedicated queue is created for the data packets associated with the network slice at a first node of the SR communication network ; dedicating a portion of bandwidth of a link between the first node and a second node of the SR communication network to the network slice ; provisioning the portion of bandwidth of the link to the dedicated queue corresponding to the network slice ; creating a resource guaranteed adjacency Segment Routing Identifier, SID, for the network slice ; advertising the resource guaranteed adjacency SID to the SR communication network using the IGPflexible algorithm or the BGPflexible algorithm , wherein advertising the resource guaranteed adjacencySID to the SR communication network comprises advertising the resource guaranteed adjacencySI D with the dedicated portion of bandwidth of the link corresponding to the network slice ; and routing , at the first node , data packets associated with the network slice using the dedicated portion of bandwidth of the link and the dedicated queue.
Fire safety door for closing door openings, preferably in tunnel tubes with a door leaf movably arranged on a door frame , which door leaf comprises door leaf slits in the form of through-holes, with a slider movably arranged on the door leaf , which slider covers the door leaf slots in a slider closed position and which opens the door leaf slots in a slider open position, with a lock latch arranged on the door leaf , which is movable from a lock latch opening position retracted into the door leaf into a lock latch closing position protruding beyond the door leaf and vice versa, with a door handle arranged on the door leaf , which is coupled to the slider and to the lock latch and which, when actuated, simultaneously moves the lock latch to the lock latch opening position and the slider to the slider open position. with a door leaf movably arranged on a door frame , which door leaf comprises door leaf slits in the form of through-holes, with a slider movably arranged on the door leaf , which slider covers the door leaf slots in a slider closed position and which opens the door leaf slots in a slider open position, with a lock latch arranged on the door leaf , which is movable from a lock latch opening position retracted into the door leaf into a lock latch closing position protruding beyond the door leaf and vice versa, with a door handle arranged on the door leaf , which is coupled to the slider and to the lock latch and which, when actuated, simultaneously moves the lock latch to the lock latch opening position and the slider to the slider open position.
Method for defining an inspection time in a heating system , comprising the following steps: • determining a calibration value by way of a measurement of a combustion characteristic variable , in particular an ionization current ; • defining an inspection time in a manner dependent on the calibration value ; characterized in that the calibration value is a combustion characteristic variable maximum . • determining a calibration value by way of a measurement of a combustion characteristic variable , in particular an ionization current ; • defining an inspection time in a manner dependent on the calibration value ;
A method of transmitting data between a base station and a user equipment in a cellular radio system, wherein the data can be transmitted using at least two different modes for multicarrier transmission, wherein each mode for multicarrier transmission allows simultaneous transmission or reception of data blocks over more than one carrier frequency, and where each mode for multicarrier transmission corresponds to a mapping of one or more data blocks over different carriers for transmission, the method comprising the step of: - - signaling , from the base station to the user equipment, at least two different modes for multicarrier transmission that are currently in use and indicating the carriers to be used for each particular transmission mode, wherein the at least two different modes for multicarrier transmission are selected using a criteria, wherein the selected at least two different modes for multicarrier transmission comprise at least two of: a first transmission mode, wherein different data blocks are mapped over different carriers; a second transmission mode, wherein data blocks are interleaved over different carriers; a third transmission mode, wherein repetitive data blocks are mapped over different carriers; and a fourth transmission mode, wherein repetitive data blocks are mapped over different carriers in different Transmission Time Intervals 'TTIs'. - - signaling , from the base station to the user equipment, at least two different modes for multicarrier transmission that are currently in use and indicating the carriers to be used for each particular transmission mode, wherein the at least two different modes for multicarrier transmission are selected using a criteria, wherein the selected at least two different modes for multicarrier transmission comprise at least two of: a first transmission mode, wherein different data blocks are mapped over different carriers; a second transmission mode, wherein data blocks are interleaved over different carriers; a third transmission mode, wherein repetitive data blocks are mapped over different carriers; and a fourth transmission mode, wherein repetitive data blocks are mapped over different carriers in different Transmission Time Intervals 'TTIs'.
A microwave resonator magnetic field measuring device for measuring alternating magnetic fields, comprising: - a base plate with at least one support/bearing/clamping point ; - at least one mechanical oscillator (12 + 13) formed as a microwave resonator in the form of a cantilever having at least one magnetostrictive layer , the latter being connected and mounted at least at one point to the base plate in the at least one support/bearing/clamping point , - at least one coupling means for microwaves and - at least one decoupling means for microwaves, wherein the base plate and the mechanical oscillator (12 + 13), formed as a microwave resonator, are at least partly electrically conductive and are electrically conductively connected to one another, wherein the microwave resonator magnetic field measuring device is set up to detect, during operation, the mechanical deflection of the mechanical oscillator (12 + 13) by the influence of an alternating magnetic field to be measured on the magnetostrictive layer by means of the integrated microwave resonator. - a base plate with at least one support/bearing/clamping point ; - at least one mechanical oscillator (12 + 13) formed as a microwave resonator in the form of a cantilever having at least one magnetostrictive layer , the latter being connected and mounted at least at one point to the base plate in the at least one support/bearing/clamping point , - at least one coupling means for microwaves and - at least one decoupling means for microwaves, wherein the base plate and the mechanical oscillator (12 + 13), formed as a microwave resonator, are at least partly electrically conductive and are electrically conductively connected to one another, wherein the microwave resonator magnetic field measuring device is set up to detect, during operation, the mechanical deflection of the mechanical oscillator (12 + 13) by the influence of an alternating magnetic field to be measured on the magnetostrictive layer by means of the integrated microwave resonator.