mhurhangee/patent-ind-claim-en huggingface dataset:
A system for closed transfer of fluids comprising: a syringe adapter comprising: a housing having a first end and a second end , the first end configured to be secured to a syringe; a cannula having a first end and a second end , the second end positioned within the housing ; a seal arrangement positioned within the housing and movable within the housing, the seal arrangement comprising a seal membrane ; and a second component comprising a second component membrane and a locking mechanism , the second component configured to be received by the syringe adapter such that the seal membrane of the seal arrangement engages the second component membrane of the second component, characterized in that the locking mechanism comprises a biasing member and an engagement member positioned on the biasing member , the engagement member configured to engage a portion of the housing of the syringe adapter to secure the second component to the syringe adapter when the second component is received by the syringe adapter . a syringe adapter comprising: a housing having a first end and a second end , the first end configured to be secured to a syringe; a cannula having a first end and a second end , the second end positioned within the housing ; a seal arrangement positioned within the housing and movable within the housing, the seal arrangement comprising a seal membrane ; and a housing having a first end and a second end , the first end configured to be secured to a syringe; a cannula having a first end and a second end , the second end positioned within the housing ; a seal arrangement positioned within the housing and movable within the housing, the seal arrangement comprising a seal membrane ; and a second component comprising a second component membrane and a locking mechanism , the second component configured to be received by the syringe adapter such that the seal membrane of the seal arrangement engages the second component membrane of the second component, characterized in that the locking mechanism comprises a biasing member and an engagement member positioned on the biasing member , the engagement member configured to engage a portion of the housing of the syringe adapter to secure the second component to the syringe adapter when the second component is received by the syringe adapter .
A method implemented in a radio node , the method comprising: determining (S136): (i) a maximum channel occupancy time, MCOT, value; and (ii) at least one listen-before-talk, LBT, parameter setting, the MCOT value and/or the at least one LBT parameter setting for one or more LBT parameters depending on an energy detection, ED, threshold value used to access a channel in an unlicensed spectrum, wherein the MCOT value depends on the ED threshold value used to access the channel, wherein the MCOT value decreases as the ED threshold value increases; and performing (S138) a LBT procedure to gain access to the channel and a transmission on the channel according to the at least one LBT parameter setting and the MCOT value; as a result of deferring to a second radio node during a channel access procedure in which energy from the second radio node is received at a lower value than the ED threshold value used by the radio node during the channel access procedure: using an MCOT value or at least one listen-before-talk parameter setting for at least one LBT parameter that corresponds to a lower ED threshold value for a next transmission after the channel access procedure. determining (S136): (i) a maximum channel occupancy time, MCOT, value; and (ii) at least one listen-before-talk, LBT, parameter setting, the MCOT value and/or the at least one LBT parameter setting for one or more LBT parameters depending on an energy detection, ED, threshold value used to access a channel in an unlicensed spectrum, wherein the MCOT value depends on the ED threshold value used to access the channel, wherein the MCOT value decreases as the ED threshold value increases; and performing (S138) a LBT procedure to gain access to the channel and a transmission on the channel according to the at least one LBT parameter setting and the MCOT value; as a result of deferring to a second radio node during a channel access procedure in which energy from the second radio node is received at a lower value than the ED threshold value used by the radio node during the channel access procedure: using an MCOT value or at least one listen-before-talk parameter setting for at least one LBT parameter that corresponds to a lower ED threshold value for a next transmission after the channel access procedure.
A non-surgical method for removing air from a medical device prior to introduction into the body, comprising: providing a source of perfluorocarbon or degassed perfluorocarbon; flushing the medical device with a different gas to flush out air; and, flushing the medical device with perfluorocarbon or degassed perfluorocarbon from the source of perfluorocarbon or degassed perfluorocarbon to remove the gas from the medical device. providing a source of perfluorocarbon or degassed perfluorocarbon; flushing the medical device with a different gas to flush out air; and, flushing the medical device with perfluorocarbon or degassed perfluorocarbon from the source of perfluorocarbon or degassed perfluorocarbon to remove the gas from the medical device.
A method for filling cooling holes in a component of a gas turbine engine , the component having an outer surface and an inner surface and a plurality of first cooling holes , the plurality of first cooling holes extending between the outer surface and the inner surface of the component, the method comprising the steps of: exposing the outer surface of the component, wherein this step comprises the step of removing a first thermal barrier coating from the outer surface of the component; characterized by further comprising the steps of: filling the plurality of first cooling holes with a filling agent ; curing the filling agent to block the plurality of first cooling holes; applying a second thermal barrier coating over the outer surface of the component after the step of curing the filling agent and completely covering the cured filling agent on the outer surface , wherein the second thermal barrier coating comprises a second ceramic top coating overlying a second metallic bond coating ; and installing a plurality of second cooling holes , the plurality of second cooling holes penetrating the second thermal barrier coating and extending between the outer surface and the inner surface of the component. exposing the outer surface of the component, wherein this step comprises the step of removing a first thermal barrier coating from the outer surface of the component; characterized by further comprising the steps of: filling the plurality of first cooling holes with a filling agent ; curing the filling agent to block the plurality of first cooling holes; applying a second thermal barrier coating over the outer surface of the component after the step of curing the filling agent and completely covering the cured filling agent on the outer surface , wherein the second thermal barrier coating comprises a second ceramic top coating overlying a second metallic bond coating ; and installing a plurality of second cooling holes , the plurality of second cooling holes penetrating the second thermal barrier coating and extending between the outer surface and the inner surface of the component. filling the plurality of first cooling holes with a filling agent ; curing the filling agent to block the plurality of first cooling holes; applying a second thermal barrier coating over the outer surface of the component after the step of curing the filling agent and completely covering the cured filling agent on the outer surface , wherein the second thermal barrier coating comprises a second ceramic top coating overlying a second metallic bond coating ; and installing a plurality of second cooling holes , the plurality of second cooling holes penetrating the second thermal barrier coating and extending between the outer surface and the inner surface of the component.
An illumination system , comprising: a flexible substrate ; a plurality of light-emitting diodes ("LEDs") disposed along one or more axes of the flexible substrate; a plurality of sensors configured to provide one or more signals indicative of a shape formed by the flexible substrate; and a controller communicably coupled with the plurality of LEDs and the plurality of sensors, wherein the controller is configured to: detect one or more lengths of the flexible substrate along the one or more axes based on the one or more signals provided by the plurality of sensors; and energize one or more LEDs of the plurality of LEDs to emit light having one or more lighting properties selected based on the detected one or more lengths. a flexible substrate ; a plurality of light-emitting diodes ("LEDs") disposed along one or more axes of the flexible substrate; a plurality of sensors configured to provide one or more signals indicative of a shape formed by the flexible substrate; and a controller communicably coupled with the plurality of LEDs and the plurality of sensors, wherein the controller is configured to: detect one or more lengths of the flexible substrate along the one or more axes based on the one or more signals provided by the plurality of sensors; and energize one or more LEDs of the plurality of LEDs to emit light having one or more lighting properties selected based on the detected one or more lengths. detect one or more lengths of the flexible substrate along the one or more axes based on the one or more signals provided by the plurality of sensors; and energize one or more LEDs of the plurality of LEDs to emit light having one or more lighting properties selected based on the detected one or more lengths.
A single motor gearbox assembly for driving multiple selected outputs, the assembly comprising: a housing ; a shift motor supported by the housing ; a drive motor supported by the housing for driving a main drive gear ; a plurality of spaced apart output gears (112a-112c) rotatably supported by the housing and selectively driven by the drive motor ; a drive selection arm operatively coupled to said shift motor for actuation between select positions aligned with at least one of said output gears (112a-112c), said drive selection arm including an intermediate gear meshed between said main drive gear and one of said output gears (112a-112c) in response to alignment of said drive selection arm with the output gear (112a-112c) in the select position for actuating and driving the output gear (112a-112c) and the selected output; and a plurality of micro-switches (114a-114c) operably connected to interchangeably activate and deactivate the shift motor for alignment of the drive selection arm with one of the output gears (112a-112c) and the drive motor for driving the main , intermediate , and output gears (112a-112c). a housing ; a shift motor supported by the housing ; a drive motor supported by the housing for driving a main drive gear ; a plurality of spaced apart output gears (112a-112c) rotatably supported by the housing and selectively driven by the drive motor ; a drive selection arm operatively coupled to said shift motor for actuation between select positions aligned with at least one of said output gears (112a-112c), said drive selection arm including an intermediate gear meshed between said main drive gear and one of said output gears (112a-112c) in response to alignment of said drive selection arm with the output gear (112a-112c) in the select position for actuating and driving the output gear (112a-112c) and the selected output; and a plurality of micro-switches (114a-114c) operably connected to interchangeably activate and deactivate the shift motor for alignment of the drive selection arm with one of the output gears (112a-112c) and the drive motor for driving the main , intermediate , and output gears (112a-112c).
A surgical instrument comprising: an ultrasonic blade (1000; 1000'; 1010; 1012; 1142) configured to operate at a resonant frequency, the ultrasonic blade (1000; 1000'; 1010; 1012; 1142) comprising: a proximally positioned straight section extending along a longitudinal axis; and a distally positioned curved section coupled to the straight section and curved away from the longitudinal axis, wherein the curved section defines a radius of curvature, wherein the curved section subtends a first angle, the instrument having a point of tangency between the curved section and the straight section and characterized in that the radius of curvature of the curved section is described by: radius of curvature = ncπ 4 θƒ 0 π − θ 2 0.5 ; wherein: ƒ 0 is the resonant frequency of the ultrasonic blade (1000; 1000'; 1010; 1012; 1142) according to a first mode; θ is the first angle; n is a number of quarter wavelengths in the curved section at the first mode; and c is a phase velocity of ultrasonic vibrations in the ultrasonic blade (1000; 1000'; 1010; 1012; 1142) at the resonant frequency. a proximally positioned straight section extending along a longitudinal axis; and a distally positioned curved section coupled to the straight section and curved away from the longitudinal axis, wherein the curved section defines a radius of curvature, wherein the curved section subtends a first angle, the instrument having a point of tangency between the curved section and the straight section and characterized in that the radius of curvature of the curved section is described by: radius of curvature = ncπ 4 θƒ 0 π − θ 2 0.5 ; wherein: ƒ 0 is the resonant frequency of the ultrasonic blade (1000; 1000'; 1010; 1012; 1142) according to a first mode; θ is the first angle; n is a number of quarter wavelengths in the curved section at the first mode; and c is a phase velocity of ultrasonic vibrations in the ultrasonic blade (1000; 1000'; 1010; 1012; 1142) at the resonant frequency. ƒ 0 is the resonant frequency of the ultrasonic blade (1000; 1000'; 1010; 1012; 1142) according to a first mode; θ is the first angle; n is a number of quarter wavelengths in the curved section at the first mode; and c is a phase velocity of ultrasonic vibrations in the ultrasonic blade (1000; 1000'; 1010; 1012; 1142) at the resonant frequency.
A computer-implemented method for routing in a mobile wireless network , performed by a controller node , comprising: collecting state information associated with one or more wireless nodes (106-136) and determining how to provision wireless nodes based on the collected state information and a utility-based mechanism, wherein the utility-based mechanism assigns a packet with a dynamic microutility such that the priority of the packet changes as the packet travels through the network based on the receiving node; allocating one or more network elements based on the collected state information and the utility-based mechanism; and responsive to the allocation of the one or more network elements, reconfiguring a logical topology of the mobile wireless network to achieve the utility-based mechanism by using software-defined mobile ad hoc network nodes, thereby facilitating a large-scale mobile ad hoc network to adapt to specific application needs of wireless nodes. collecting state information associated with one or more wireless nodes (106-136) and determining how to provision wireless nodes based on the collected state information and a utility-based mechanism, wherein the utility-based mechanism assigns a packet with a dynamic microutility such that the priority of the packet changes as the packet travels through the network based on the receiving node; allocating one or more network elements based on the collected state information and the utility-based mechanism; and responsive to the allocation of the one or more network elements, reconfiguring a logical topology of the mobile wireless network to achieve the utility-based mechanism by using software-defined mobile ad hoc network nodes, thereby facilitating a large-scale mobile ad hoc network to adapt to specific application needs of wireless nodes.
A packaging assembly and system comprising: a first tray having a first upper surface and a first lower surface opposite the first upper surface, the first upper surface including at least one first retention member configured to couple an electromagnetic trackable surgical tool to the first upper surface of the first tray; an electromagnetic trackable surgical tool retained by the first retention member ; a second tray having a second upper surface and a second lower surface opposite the second upper surface and configured to couple with the first tray such that the electromagnetic trackable surgical tool is between the first upper surface of the first tray and the second lower surface of the second tray, the second upper surface including at least one second retention member configured to couple a wiring of the electromagnetic trackable surgical tool to the second tray; the wiring of the electromagnetic trackable surgical tool retained by the second retention member ; and a connector at an end of the wiring coupled to the second upper surface of the second tray . a first tray having a first upper surface and a first lower surface opposite the first upper surface, the first upper surface including at least one first retention member configured to couple an electromagnetic trackable surgical tool to the first upper surface of the first tray; an electromagnetic trackable surgical tool retained by the first retention member ; a second tray having a second upper surface and a second lower surface opposite the second upper surface and configured to couple with the first tray such that the electromagnetic trackable surgical tool is between the first upper surface of the first tray and the second lower surface of the second tray, the second upper surface including at least one second retention member configured to couple a wiring of the electromagnetic trackable surgical tool to the second tray; the wiring of the electromagnetic trackable surgical tool retained by the second retention member ; and a connector at an end of the wiring coupled to the second upper surface of the second tray .
An arrangement comprising a coin sorting machine and a plurality of containers arranged side by side below the coin sorting machine, the containers having at least one downwardly projecting guide surface on a bottom side , the guide surface being formed by guide webs which are formed from projecting walls of the lateral sides, so that both form guide surfaces which are spaced apart from each other and lie opposite each other, the containers having, on their bottom side , a receiving region open at least towards one end face for receiving a prong of a lifting or tiering truck .
A method for an access point, AP, to communicate with a plurality of stations, STAs, using orthogonal frequency divisional multiple access, OFDMA, or multi-user multiple input multiple output, MU-MIMO in a wireless local area network, WLAN, the method comprising: transmitting resource allocation information for the plurality of STAs; and transmitting data through a frequency band based on the resource allocation information, wherein the frequency band includes a plurality of resource units, the plurality of resource units including a normal resource unit allocated to one STA, and a multi-user resource unit which is a single resource unit allocated to more than one STA among the plurality of STAs, wherein the resource allocation information includes: a common resource allocation information having a same bit sequence value for the plurality of STAs, and informing of a number of the plurality of resource units and various size of each of the plurality of resource units, multi-user indication for a number of STAs, among the plurality of STAs, to which the multi-user resource unit is allocated, and multiple ID fields for corresponding identification information of STA to which the normal resource unit or the multi-user resource unit is allocated. transmitting resource allocation information for the plurality of STAs; and transmitting data through a frequency band based on the resource allocation information, wherein the frequency band includes a plurality of resource units, the plurality of resource units including a normal resource unit allocated to one STA, and a multi-user resource unit which is a single resource unit allocated to more than one STA among the plurality of STAs, wherein the resource allocation information includes: a common resource allocation information having a same bit sequence value for the plurality of STAs, and informing of a number of the plurality of resource units and various size of each of the plurality of resource units, multi-user indication for a number of STAs, among the plurality of STAs, to which the multi-user resource unit is allocated, and multiple ID fields for corresponding identification information of STA to which the normal resource unit or the multi-user resource unit is allocated. a common resource allocation information having a same bit sequence value for the plurality of STAs, and informing of a number of the plurality of resource units and various size of each of the plurality of resource units, multi-user indication for a number of STAs, among the plurality of STAs, to which the multi-user resource unit is allocated, and multiple ID fields for corresponding identification information of STA to which the normal resource unit or the multi-user resource unit is allocated.
A crystalline silicon carbide fiber comprising: silicon carbide; and boron nitride; the crystalline silicon carbide fiber having a content of Si of 64% to 72% by weight, a content of C of 28% to 35% by weight, a content of B of 0.1% to 3.0% by weight, and a content of Ti of less than 0.2% by weight, wherein the contents of Si, C, B, and Ti in the crystalline silicon carbide fiber are determined by using an element analyzer and ICP-AES, the crystalline silicon carbide fiber including, at a surface portion, a composition gradient layer in which a content of silicon carbide increases while a content of boron nitride decreases toward a depth direction, and a main body portion containing crystalline silicon carbide as a main component on a side closer to the center than the composition gradient layer, the content of crystalline silicon carbide in the main body portion being 97% by weight or more. silicon carbide; and boron nitride; the crystalline silicon carbide fiber having a content of Si of 64% to 72% by weight, a content of C of 28% to 35% by weight, a content of B of 0.1% to 3.0% by weight, and a content of Ti of less than 0.2% by weight, wherein the contents of Si, C, B, and Ti in the crystalline silicon carbide fiber are determined by using an element analyzer and ICP-AES, the crystalline silicon carbide fiber including, at a surface portion, a composition gradient layer in which a content of silicon carbide increases while a content of boron nitride decreases toward a depth direction, and a main body portion containing crystalline silicon carbide as a main component on a side closer to the center than the composition gradient layer, the content of crystalline silicon carbide in the main body portion being 97% by weight or more.
A computer program for changing effective ventilation of a subject connected to a breathing apparatus , the computer program comprising computer readable code which, when executed by a control computer of the breathing apparatus, causes the breathing apparatus to ventilate the subject using a ventilation pattern comprising at least one phase of increased ventilation and at least one phase of decreased ventilation, wherein the phase of decreased ventilation comprises at least one prolonged breath (B2; B2'-B2"') including a respiratory pause (IRP), characterised by causing the respiratory pause to be initiated when the lung pressure (P alv ) of the subject is between a minimum lung pressure and a maximum lung pressure of the subject during the prolonged breath.