mhurhangee/patent-ind-claim-en huggingface dataset:
Patient ventilation assembly comprising a docking station and a medical ventilator , in which the docking station comprises hooking means , and the ventilator comprises securing means interacting with the hooking means of the docking station when the ventilator is positioned on said docking station , so as to rigidly connect the ventilator to the docking station , in which: - the securing means of the ventilator comprise at least one opening formed in a bottom wall of said ventilator , and - the hooking means of the docking station comprise at least one hook element , said at least one hook element being inserted into said at least one opening of the ventilator and bearing on at least one inner surface of the ventilator in order to maintain said ventilator rigidly connected to the docking station , characterized in that : - the one or more hook elements are movable in translation between at least: i) a coupling position, in which the one or more hook elements bear on at least one inner surface of the ventilator in order to maintain said ventilator rigidly connected to the docking station , and ii) a decoupling position, in which the one or more hook elements do not bear on an inner surface of the ventilator , so as to be able to detach the ventilator from the docking station , and - the hooking means of the docking station further comprise elastic return means that interact with the one or more hook elements so as to return them elastically to the coupling position. - the securing means of the ventilator comprise at least one opening formed in a bottom wall of said ventilator , and - the hooking means of the docking station comprise at least one hook element , said at least one hook element being inserted into said at least one opening of the ventilator and bearing on at least one inner surface of the ventilator in order to maintain said ventilator rigidly connected to the docking station , characterized in that : - the one or more hook elements are movable in translation between at least: i) a coupling position, in which the one or more hook elements bear on at least one inner surface of the ventilator in order to maintain said ventilator rigidly connected to the docking station , and ii) a decoupling position, in which the one or more hook elements do not bear on an inner surface of the ventilator , so as to be able to detach the ventilator from the docking station , and i) a coupling position, in which the one or more hook elements bear on at least one inner surface of the ventilator in order to maintain said ventilator rigidly connected to the docking station , and ii) a decoupling position, in which the one or more hook elements do not bear on an inner surface of the ventilator , so as to be able to detach the ventilator from the docking station , and - the hooking means of the docking station further comprise elastic return means that interact with the one or more hook elements so as to return them elastically to the coupling position.
A method comprising: receiving, by a provider edge router (10A; 10B) of an intermediate layer 3 network , configuration data configuring the provider edge router to provide multi-homed layer 2 virtual bridge connectivity to a customer edge device using an active-standby mode of operation; and sending, by the provider edge router to a remote provider edge router , in response to receiving, from the customer edge device, a reply to a request for a layer 2 address of a layer 3 address of the customer edge device, a route advertisement that includes a static route specifying a layer 3 address of the customer edge device as a next-hop for a layer 3 subnet in a customer network that includes the customer edge device and for which the customer edge device is configured to provide reachability. receiving, by a provider edge router (10A; 10B) of an intermediate layer 3 network , configuration data configuring the provider edge router to provide multi-homed layer 2 virtual bridge connectivity to a customer edge device using an active-standby mode of operation; and sending, by the provider edge router to a remote provider edge router , in response to receiving, from the customer edge device, a reply to a request for a layer 2 address of a layer 3 address of the customer edge device, a route advertisement that includes a static route specifying a layer 3 address of the customer edge device as a next-hop for a layer 3 subnet in a customer network that includes the customer edge device and for which the customer edge device is configured to provide reachability.
A computer-implemented method of radiotherapy treatment planning for creating a plan for delivery of at least one particle-based arc to a patient using an apparatus arranged to deliver radiation in the form of charged particles from a number of different directions comprising the steps of a. determining (S11; S21) an initial set of candidate energy layers, each layer involving a particular energy level at a particular beam angle, b. performing a calculation on the initial set, c. determining (S13; S23), based on the outcome of said calculation, at least one additional energy layer to produce an expanded candidate layer set, wherein the at least one additional energy layer involves an energy level not previously used in any of the energy layers, d. adding (S14; S24) the at least one additional energy layer to the initial set, to produce an expanded candidate energy layer set e. optimizing (S16; S26) a radiotherapy treatment plan based on the expanded candidate layer set. a. determining (S11; S21) an initial set of candidate energy layers, each layer involving a particular energy level at a particular beam angle, b. performing a calculation on the initial set, c. determining (S13; S23), based on the outcome of said calculation, at least one additional energy layer to produce an expanded candidate layer set, wherein the at least one additional energy layer involves an energy level not previously used in any of the energy layers, d. adding (S14; S24) the at least one additional energy layer to the initial set, to produce an expanded candidate energy layer set e. optimizing (S16; S26) a radiotherapy treatment plan based on the expanded candidate layer set.
A platform (70; 170) for a gas turbine engine comprising: a platform body (70A; 170A) including a gas path surface extending axially between a leading edge (70LE; 170LE) and a trailing edge (70TE; 170TE) and extending circumferentially between opposed mate faces (70M; 170M); a plurality of platform flanges (70B; 170B) extending from the platform body (70A; 170A) to define one or more slots , the one or more slots dimensioned to receive a respective flange of a rotatable hub , and each platform flange (70B; 170B) includes a retention member (73; 173) dimensioned to receive a retention pin (71; 171) to mount the platform body (70A; 170A); wherein the platform body (70A; 170A) includes a composite wrap (70E; 170E) extending about a perimeter of the platform body (70A; 170A) to define an internal cavity (70F; 170F); and characterized in that the platform body comprises at least one honeycomb core (74; 174) including a plurality of cells that is disposed in the internal cavity (70F; 170F). a platform body (70A; 170A) including a gas path surface extending axially between a leading edge (70LE; 170LE) and a trailing edge (70TE; 170TE) and extending circumferentially between opposed mate faces (70M; 170M); a plurality of platform flanges (70B; 170B) extending from the platform body (70A; 170A) to define one or more slots , the one or more slots dimensioned to receive a respective flange of a rotatable hub , and each platform flange (70B; 170B) includes a retention member (73; 173) dimensioned to receive a retention pin (71; 171) to mount the platform body (70A; 170A); wherein the platform body (70A; 170A) includes a composite wrap (70E; 170E) extending about a perimeter of the platform body (70A; 170A) to define an internal cavity (70F; 170F); and characterized in that the platform body comprises at least one honeycomb core (74; 174) including a plurality of cells that is disposed in the internal cavity (70F; 170F).
A resource allocation method comprising: transmitting (S1320) a signal having a first beam width through an orthogonal resource according to a frame structure for beamforming by a first base station for managing a first cell; and transmitting (S1321) a signal having a second beam width different from the first beam width through the orthogonal resource according to the frame structure by a second base station for managing a second cell adjacent to the first cell, wherein the signal having the first beam width is a signal having a first priority, and the signal having the second beam width is a signal having a second priority different from the first priority, and wherein if the first priority is higher than the second priority, the signal having the first priority is modulated with a modulation scheme lower than a modulation scheme of the signal having the second priority, wherein the first base station allocates more resources to the signal having the first priority than the signal having the second priority. transmitting (S1320) a signal having a first beam width through an orthogonal resource according to a frame structure for beamforming by a first base station for managing a first cell; and transmitting (S1321) a signal having a second beam width different from the first beam width through the orthogonal resource according to the frame structure by a second base station for managing a second cell adjacent to the first cell, wherein the signal having the first beam width is a signal having a first priority, and the signal having the second beam width is a signal having a second priority different from the first priority, and wherein if the first priority is higher than the second priority, the signal having the first priority is modulated with a modulation scheme lower than a modulation scheme of the signal having the second priority, wherein the first base station allocates more resources to the signal having the first priority than the signal having the second priority.
Pipe connection arrangement for a wall structure (W), comprising a pipe connection part with a side wall which delimits a pipe channel , with a pressing contour arranged on the side wall and via which the pipe connection part is connectable to a first pipe, with a threaded structure arranged on the side wall for connecting the pipe connection part to a second pipe, and with a mounting section arranged on the exterior on the side wall , and comprising a mounting element with a mounting opening extending along a center axis (M), and being delimited on the exterior by a wall , and with at least one anti-rotation element which on the exterior of the wall extends away radially towards the center axis (M), wherein the pipe connection part is insertable with its mounting section into the mounting opening and in an inserted state is mounted in a rotationally fixed manner in the mounting opening of the mounting element , and wherein in an installed state, the at least one anti-rotation element can be extended into the wall structure (W) such that a force acting on the threaded structure can be transmitted into the wall structure (W) via the anti-rotation element , characterized in that the anti-rotation element comprises at least one main surface , which lies in a plane which runs at an angularly inclined manner with respect to the center axis (M). a pipe connection part with a side wall which delimits a pipe channel , with a pressing contour arranged on the side wall and via which the pipe connection part is connectable to a first pipe, with a threaded structure arranged on the side wall for connecting the pipe connection part to a second pipe, and with a mounting section arranged on the exterior on the side wall , with a side wall which delimits a pipe channel , with a pressing contour arranged on the side wall and via which the pipe connection part is connectable to a first pipe, with a threaded structure arranged on the side wall for connecting the pipe connection part to a second pipe, and with a mounting section arranged on the exterior on the side wall , and comprising a mounting element with a mounting opening extending along a center axis (M), and being delimited on the exterior by a wall , and with at least one anti-rotation element which on the exterior of the wall extends away radially towards the center axis (M), wherein the pipe connection part is insertable with its mounting section into the mounting opening and in an inserted state is mounted in a rotationally fixed manner in the mounting opening of the mounting element , and wherein in an installed state, the at least one anti-rotation element can be extended into the wall structure (W) such that a force acting on the threaded structure can be transmitted into the wall structure (W) via the anti-rotation element , characterized in that the anti-rotation element comprises at least one main surface , which lies in a plane which runs at an angularly inclined manner with respect to the center axis (M).
A tracheostoma valve , comprising: a housing having a first opening that is adapted to open to a tracheostoma and a second opening that opens to ambient; a closure member disposed in the housing and adapted to close one of the first opening and the second opening ; and a flexible membrane including a first region connected to the closure member and a plurality of legs extending from the first region and connected to the housing , characterized in that the plurality of legs extend radially outward from the first region in a spiral shape and terminate at a free-end for connection to the housing . a housing having a first opening that is adapted to open to a tracheostoma and a second opening that opens to ambient; a closure member disposed in the housing and adapted to close one of the first opening and the second opening ; and a flexible membrane including a first region connected to the closure member and a plurality of legs extending from the first region and connected to the housing , characterized in that the plurality of legs extend radially outward from the first region in a spiral shape and terminate at a free-end for connection to the housing .
Electromagnetic induction coil clamp for use with a power supply having a first polarity terminal and a second opposite polarity terminal for induction welding an induction weldable pipe connector and a plastic pipe end to form a welded sealed joint, the clamp comprising: (a) an elongated lever pair pivoted at a fulcrum for forming a long handle pair for hand gripping by a user and a short jaw pair ; (b) a biasing member for normally biasing said jaw pair into a closed position for defining a tubular coil housing having a longitudinal coil housing axis transverse to said lever pair wherein said biasing is countered on manually squeezing said handle pair together for opening said jaw pair; and (c) an induction coil extending peripherally around said coil housing whereupon operation of the power supply energizes said induction coil to generate a substantially uniform electromagnetic field intensity at a given radial distance from the longitudinal coil housing axis for inducing electromagnetic induction in the induction weldable pipe connector and plastic pipe end placed therein to form the welded sealed joint, characterized in that said clamp is a reverse action pliers , and said coil housing has a stepped internal surface including a central section and a pair of lateral ends wherein said lateral ends have a smaller internal diameter than said central section, wherein said lateral ends extend beyond said induction weldable pipe connector on clamping said short jaw pair thereon such that said induction weldable pipe connector resides in said central section . (a) an elongated lever pair pivoted at a fulcrum for forming a long handle pair for hand gripping by a user and a short jaw pair ; (b) a biasing member for normally biasing said jaw pair into a closed position for defining a tubular coil housing having a longitudinal coil housing axis transverse to said lever pair wherein said biasing is countered on manually squeezing said handle pair together for opening said jaw pair; and (c) an induction coil extending peripherally around said coil housing whereupon operation of the power supply energizes said induction coil to generate a substantially uniform electromagnetic field intensity at a given radial distance from the longitudinal coil housing axis for inducing electromagnetic induction in the induction weldable pipe connector and plastic pipe end placed therein to form the welded sealed joint,
A coolant pump assembly having an electric coolant pump for a motor vehicle and an engine component and/or a body part, comprising a multi-part pump housing having a coolant inlet and a coolant outlet , wherein in said pump housing an electric drive unit is arranged and wherein said pump housing comprises a fastening assembly via which said coolant pump is adapted to be detachably connected in the engine compartment to the engine component and/or the body part, wherein said fastening assembly comprises at least one screw connection and at least one interlocking connection (18, 26; 20, 28), characterized in that the at least one interlocking connection and the at least one screw connection comprising a common joining direction.
A mounting plate for a pressurized tank, the mounting plate comprising: a mounting portion which completely surrounds and retains a tank end and any affixed plug adjacent to a plurality of fastening regions ; a flexing portion adjacent to a mounting feature ; a plurality of flexion pathways formed that lead from the mounting portion to the flexing portion, with each of the plurality of flexion pathways having at least a portion having a cross-sectional area, with the cross-sectional areas of the plurality of flexion pathways being substantially consistent with each other; wherein each of the plurality of flexion pathways is formed by one or more cutaway paths having at least one circular end-cut and at least one linear cut in combination, the at least one linear cut of each cutaway path defining a gap between the mounting portion and the flexing portion , wherein the flexing portion is movable in a direction out of a same plane as the mounting portion through a bending deflection, and wherein the gap allows for flexion between the flexing portion and the mounting portion with the flexing portion being movable in a direction that stretches open or presses closed the gap . a mounting portion which completely surrounds and retains a tank end and any affixed plug adjacent to a plurality of fastening regions ; a flexing portion adjacent to a mounting feature ; a plurality of flexion pathways formed that lead from the mounting portion to the flexing portion, with each of the plurality of flexion pathways having at least a portion having a cross-sectional area, with the cross-sectional areas of the plurality of flexion pathways being substantially consistent with each other; wherein each of the plurality of flexion pathways is formed by one or more cutaway paths having at least one circular end-cut and at least one linear cut in combination, the at least one linear cut of each cutaway path defining a gap between the mounting portion and the flexing portion , wherein the flexing portion is movable in a direction out of a same plane as the mounting portion through a bending deflection, and wherein the gap allows for flexion between the flexing portion and the mounting portion with the flexing portion being movable in a direction that stretches open or presses closed the gap .
A vehicle anomaly detection server , comprising: a communicator configured to communicate with a first vehicle among a plurality of vehicles to receive a log of an in-vehicle network included in the first vehicle; a vehicle selector configured to select, when information indicating that an anomaly is occurring to the first vehicle obtained by the vehicle selector , an anomaly-related vehicle from among the plurality of vehicles based on the anomaly occurring to the first vehicle; a log collector configured to transmit, to the anomaly-related vehicle via the communicator, a first request to transmit a log of an in-vehicle network included in the anomaly-related vehicle; and a log analyzer configured to determine whether an anomaly is occurring to the anomaly-related vehicle, based on information indicated by the log transmitted from the anomaly-related vehicle in response to the first request and received by the communicator . a communicator configured to communicate with a first vehicle among a plurality of vehicles to receive a log of an in-vehicle network included in the first vehicle; a vehicle selector configured to select, when information indicating that an anomaly is occurring to the first vehicle obtained by the vehicle selector , an anomaly-related vehicle from among the plurality of vehicles based on the anomaly occurring to the first vehicle; a log collector configured to transmit, to the anomaly-related vehicle via the communicator, a first request to transmit a log of an in-vehicle network included in the anomaly-related vehicle; and a log analyzer configured to determine whether an anomaly is occurring to the anomaly-related vehicle, based on information indicated by the log transmitted from the anomaly-related vehicle in response to the first request and received by the communicator .
A compound of formula (II) or a salt thereof, wherein: each R 1 is independently hydrogen, C 1-3 alkyl, or -CF 3 ; each R 2 is independently hydrogen, -CH 3 , or -OCH 3 ; A is cyclohexyl or piperidinyl, each substituted with zero to 2 R 3a ; each R 3a is independently C 1-6 alkyl, C 1-2 cyanoalkyl, C 1-4 fluoroalkyl, C 2-4 alkoxyalkyl, -(CH 2 ) 1-3 S(O) 2 (C 1-3 alkyl), -CH 2 (C 3-6 cycloalkyl), -CH 2 R w , -CH 2 C(O)NR x R x , -NR y R y , -NR x (C 1-3 fluoroalkyl), -NR x (C 2-4 alkoxyalkyl), -NR x R w , -NR x CH 2 R w , R w , oxaazaspiro[3.3]heptanyl, dioxothiaazaspiro[3.3]heptanyl, oxaazabicyclo[3.2.1]octanyl, or oxaazaspiro[3.5]nonanyl; R w is C 3-6 cycloalkyl, azetidinyl, pyrrolidinyl, oxetanyl, tetrahydrofuranyl, tetrahydropyranyl, piperidinyl, piperazinonyl, oxazepanyl, thiomorpholinyl, pyridinyl, pyrimidinyl, or triazolyl, each substituted with zero to 2 substituents selected from F, -OH, C 1-3 alkyl, -CF 3 , -OCH 3 , -CH 2 OCH 3 , and -S(O) 2 CH 3 ; each R x is independently hydrogen or -CH 3 ; each R y is independently hydrogen or C 1-6 alkyl; n is zero, 1, or 2; and p is zero, 1, or 2. each R 1 is independently hydrogen, C 1-3 alkyl, or -CF 3 ; each R 2 is independently hydrogen, -CH 3 , or -OCH 3 ; A is cyclohexyl or piperidinyl, each substituted with zero to 2 R 3a ; each R 3a is independently C 1-6 alkyl, C 1-2 cyanoalkyl, C 1-4 fluoroalkyl, C 2-4 alkoxyalkyl, -(CH 2 ) 1-3 S(O) 2 (C 1-3 alkyl), -CH 2 (C 3-6 cycloalkyl), -CH 2 R w , -CH 2 C(O)NR x R x , -NR y R y , -NR x (C 1-3 fluoroalkyl), -NR x (C 2-4 alkoxyalkyl), -NR x R w , -NR x CH 2 R w , R w , oxaazaspiro[3.3]heptanyl, dioxothiaazaspiro[3.3]heptanyl, oxaazabicyclo[3.2.1]octanyl, or oxaazaspiro[3.5]nonanyl; R w is C 3-6 cycloalkyl, azetidinyl, pyrrolidinyl, oxetanyl, tetrahydrofuranyl, tetrahydropyranyl, piperidinyl, piperazinonyl, oxazepanyl, thiomorpholinyl, pyridinyl, pyrimidinyl, or triazolyl, each substituted with zero to 2 substituents selected from F, -OH, C 1-3 alkyl, -CF 3 , -OCH 3 , -CH 2 OCH 3 , and -S(O) 2 CH 3 ; each R x is independently hydrogen or -CH 3 ; each R y is independently hydrogen or C 1-6 alkyl; n is zero, 1, or 2; and p is zero, 1, or 2.