mhurhangee/ep-ind-claims huggingface dataset:
A medical device for recanalizing a blood vessel having an obstruction, the medical device comprising: a distal capturing portion having an open proximal end and a fluidly permeable distal end, the distal capturing portion having a translating surface adjacent to the open proximal end and a distal capturing surface adjacent the fluidly permeable distal end; a proximal section having an open distal end and an open proximal end, the proximal section comprising a plurality of high density sections interconnected with one or more low density sections and that is configured to expand to compress the obstruction when deployed therein such that the obstruction adheres to the high density sections; and a main bundle comprising a group of wires having a first end and a second end, where the distal capturing portion and proximal section are located at the second end of the main bund and where deployment of the proximal section in the blood vessel causes the obstruction to adhere to the proximal section for removal from the blood vessel by withdrawing the main bundle. a distal capturing portion having an open proximal end and a fluidly permeable distal end, the distal capturing portion having a translating surface adjacent to the open proximal end and a distal capturing surface adjacent the fluidly permeable distal end; a proximal section having an open distal end and an open proximal end, the proximal section comprising a plurality of high density sections interconnected with one or more low density sections and that is configured to expand to compress the obstruction when deployed therein such that the obstruction adheres to the high density sections; and a main bundle comprising a group of wires having a first end and a second end, where the distal capturing portion and proximal section are located at the second end of the main bund and where deployment of the proximal section in the blood vessel causes the obstruction to adhere to the proximal section for removal from the blood vessel by withdrawing the main bundle.
A handover method, wherein the method is characterized by: during establishment or modification of a protocol data unit, PDU, session of a terminal in a first network: determining, by a first control plane function network element, at least one bearer that needs to be established when the PDU session is to be switched to a packet data network, PDN, connection in a second network, wherein the PDN connection includes the at least one bearer; and obtaining, by the first control plane function network element, tunnel information of the PDN connection, wherein the tunnel information of the PDN connection comprises control plane tunnel information corresponding to the PDN connection and user plane tunnel information corresponding to each of the at least one bearer. determining, by a first control plane function network element, at least one bearer that needs to be established when the PDU session is to be switched to a packet data network, PDN, connection in a second network, wherein the PDN connection includes the at least one bearer; and obtaining, by the first control plane function network element, tunnel information of the PDN connection, wherein the tunnel information of the PDN connection comprises control plane tunnel information corresponding to the PDN connection and user plane tunnel information corresponding to each of the at least one bearer.
A method for manufacturing an electronic device including in stack a substrate made of semiconductor material, an intermediate portion and a silicon carbide layer, the method comprising a transfer of the silicon carbide layer from a first electronic element onto a face of a second electronic element comprising the substrate, the transfer comprising: - providing the first element comprising in stack a primary silicon carbide-based layer, a first diffusion barrier portion and a first metal layer; - providing the second element comprising in stack the substrate, a second diffusion barrier portion and a second metal layer; - bonding an exposed face of the first metal layer and an exposed face of the second metal layer, characterised in that: - the first metal layer and the second metal layer are formed of tungsten; - the first portion is formed of at least one tungsten silicide layer (12, 13); - the second portion is formed of at least one tungsten silicide layer (22, 23), the second diffusion barrier portion, the second metal layer, the first metal layer and the first diffusion barrier portion forming the intermediate portion. - providing the first element comprising in stack a primary silicon carbide-based layer, a first diffusion barrier portion and a first metal layer; - providing the second element comprising in stack the substrate, a second diffusion barrier portion and a second metal layer; - bonding an exposed face of the first metal layer and an exposed face of the second metal layer, - the first metal layer and the second metal layer are formed of tungsten; - the first portion is formed of at least one tungsten silicide layer (12, 13); - the second portion is formed of at least one tungsten silicide layer (22, 23),
Chainsaw comprising a quick-tensioning device, a blade, a drive pinion, and a drive unit for driving a saw chain that runs over the blade and the drive pinion, wherein the drive pinion is connected to the drive unit via a drive shaft, wherein the blade is mounted in a slidable manner on a supporting surface on the chassis of the main body of the chain saw, wherein a wedge is mounted on the blade, wherein a movable tensioning lever arrangement comprising a mating wedge is mounted on the chassis in the region of the drive shaft, wherein the tensioning lever arrangement comprises a cover mounted pivotably on the chassis, said cover having on the one hand an open position in which at least the saw chain and the blade can be removed from the main body of the chainsaw, and on the other hand a closed position in which the saw chain bears in a tensioned manner on the drive pinion and the blade and the blade is firmly fixed to the chassis of the main body, and wherein the movement sequence of the elements of the tensioning lever arrangement at the transition from the open position to the closed position is designed such that the mating wedge comes to rest over the wedge, such that, by means of contact pressure, the blade is fixed on the chassis and at the same time the blade is slid along in the direction away from the drive pinion by means of sliding force such that the saw chain is tensioned.
Motor vehicle glazing comprising: - two glass sheets, one external and one internal, each respectively comprising an external face 1 and 3 and an internal face 2 and 4, joined by means of one or more thermoplastic interlayer sheets (7, 8, 10), - at least one electrically powered functional assembly being inserted between the sheets of the glazing, - a capacitive sensor controlling the power supply to the functional assembly via a unit for processing the signals emitted by the sensor, the sensor also being positioned on a transparent support coated with a conductive layer which is also transparent, in which layer the sensor is formed of a first region which corresponds to the capacitive electrode and a second region corresponding to the shielding electrode surrounding the first region, the first and second regions are separated by a distance A, - a touch surface, accessible by the user in position 4, placed at a distance B from the capacitive sensor, characterized in that the distance A between the capacitive electrode and the shielding electrode is equivalent to the distance B between the touch surface and the capacitive sensor. - two glass sheets, one external and one internal, each respectively comprising an external face 1 and 3 and an internal face 2 and 4, joined by means of one or more thermoplastic interlayer sheets (7, 8, 10), - at least one electrically powered functional assembly being inserted between the sheets of the glazing, - a capacitive sensor controlling the power supply to the functional assembly via a unit for processing the signals emitted by the sensor, the sensor also being positioned on a transparent support coated with a conductive layer which is also transparent, in which layer the sensor is formed of a first region which corresponds to the capacitive electrode and a second region corresponding to the shielding electrode surrounding the first region, the first and second regions are separated by a distance A, - a touch surface, accessible by the user in position 4, placed at a distance B from the capacitive sensor,
Method for fabricating an SOI substrate containing a useful semiconductor layer on a support having a resistivity greater than 1 kΩ.cm for producing high frequency electronic circuits, characterized in that it comprises the following successive steps: (a) preparing a base substrate made of silicon comprising a controlled quantity of interstitial oxygen; (b) conducting a heat treatment defined so as to produce at least partial precipitation of the interstitial oxygen of the base substrate, and forming in a superficial layer of the substrate a zone showing a depletion of oxygen caused by exodiffusion or showing electrical donors from interstitial oxygen atoms creating an undesirable doping, wherein the temperature at the end of said heat treatment is comprised between 1000 and 1100°C; (c) removing the superficial layer from a face of the base substrate intended to receive a useful layer, the thickness of the superficial layer that is removed being comprised between 0.5 μm and 10 μm; (d) forming said useful layer on said surface of the base substrate, the latter forming the support. (a) preparing a base substrate made of silicon comprising a controlled quantity of interstitial oxygen; (b) conducting a heat treatment defined so as to produce at least partial precipitation of the interstitial oxygen of the base substrate, and forming in a superficial layer of the substrate a zone showing a depletion of oxygen caused by exodiffusion or showing electrical donors from interstitial oxygen atoms creating an undesirable doping, wherein the temperature at the end of said heat treatment is comprised between 1000 and 1100°C; (c) removing the superficial layer from a face of the base substrate intended to receive a useful layer, the thickness of the superficial layer that is removed being comprised between 0.5 μm and 10 μm; (d) forming said useful layer on said surface of the base substrate, the latter forming the support.
X-ray opaque Al 2 O 3 - and B 2 O 3 -free dental glass, characterized by a composition in mol% of: SiO 2 60-98 Yb 2 O 3 0.1-40 ZrO 2 0-40 WO 3 0-40 La 2 O 3 0-40 Nb 2 O 5 0-40 HfO 2 0-40 Ta 2 O 5 0-40 Gd 2 O 3 0-40 Lu 2 O 3 0-40 Sc 2 O 3 0-40 Y 2 O 3 0-40 F 2 0-5 Li 2 O 0-<10 Na 2 O 0-<10 K 2 O 0-<10 MgO 0 - 10 CaO 0 - 10 SrO 0 - 10 BaO 0 - 10 ZnO 0 - 10 TiO 2 0 - 10 GeO 2 0 - 10 P 2 O 5 0 - 10 with ∑ MgO + CaO + SrO + BaO 0 -<10 ∑ Li 2 O + Na 2 O + K 2 O 0-<10 ∑ TiO 2 + GeO 2 + P 2 O 5 0 -<15
Device as theft protection for a camera unit of a motor vehicle that is arranged on a movable protection element of a motor vehicle, and the camera unit serves to capture images of the outside area, wherein the protection element is movable between a closed position and an open position, in the closed position the camera unit is in the idle position and in the open position the camera unit is in the operating position, the protection element has a mounting for the camera unit on the inside thereof, on the side of the protection element facing away from the outside area; a security element is arranged on the mounting and holds the camera unit reliably in the mounting, at least one fastening means is provided by means of which the security element is fastened to the inside of the protection element, and the fastening means is arranged at such a distance from the protection element that when the protection element is in the open position it is not possible for the fastening means to be tampered with.
A biaxially stretched polyamide resin film comprising: as a first component, nylon 6; and as a second component, a polyamide including xylylenediamine and an aliphatic dicarboxylic acid having 4 to 12 carbon atoms, wherein the composition ratio between the first component and the second component (first component/second component) is 95/5 to 30/70 in terms of mass ratio, and wherein in the biaxially stretched polyamide resin film, the content of low molecular weight compounds is 0% by mass to 0.2% by mass when determined in accordance with the method indicated in the description, where the low molecular weight compounds are components included in the peak at the same elution time of the caprolactam monomer when the low molecular weight compounds such as a monomer and a dimer in a nylon 6 resin are measured by HPLC. as a first component, nylon 6; and as a second component, a polyamide including xylylenediamine and an aliphatic dicarboxylic acid having 4 to 12 carbon atoms, wherein the composition ratio between the first component and the second component (first component/second component) is 95/5 to 30/70 in terms of mass ratio, and wherein in the biaxially stretched polyamide resin film, the content of low molecular weight compounds is 0% by mass to 0.2% by mass when determined in accordance with the method indicated in the description, where the low molecular weight compounds are components included in the peak at the same elution time of the caprolactam monomer when the low molecular weight compounds such as a monomer and a dimer in a nylon 6 resin are measured by HPLC.
Method for controlling of relative movement of at least two structural components (11-15,52,53) of a measuring device (1,2), the measuring device (1,2) comprising a driving unit for providing movability at least of the two structural components (11-15,52,53) relative to each other, the method comprising • providing a dynamic state information for at least one of the two structural components (11-15,52,53) by means of a dynamic model with a set of model state variables, the model state variables □ being related to a set of physical properties of at least one of the two structural components (11-15,52,53) and □ providing determination of an actual state of at least one of the two structural components (11-15,52,53), • providing a model-based state controller for controlling the driving unit, the model-based state controller comprising a set of at least one controlling state variable which depends on the actual state, • deriving at least one controlling state variable of the set of at least one controlling state variable by a calculation at least based on the dynamic model, • generating a controlling parameter by use of the state controller based on the at least one derived controlling state variable, the controlling parameter being adapted to provide driving the driving unit so that the at least one derived controlling state variable and/or actual state is affected in defined manner, and • applying the controlling parameter to the driving unit so that the structural components (11-15,52,53) are moved in defined manner relative to each other. • providing a dynamic state information for at least one of the two structural components (11-15,52,53) by means of a dynamic model with a set of model state variables, the model state variables □ being related to a set of physical properties of at least one of the two structural components (11-15,52,53) and □ providing determination of an actual state of at least one of the two structural components (11-15,52,53), □ being related to a set of physical properties of at least one of the two structural components (11-15,52,53) and □ providing determination of an actual state of at least one of the two structural components (11-15,52,53), • providing a model-based state controller for controlling the driving unit, the model-based state controller comprising a set of at least one controlling state variable which depends on the actual state, • deriving at least one controlling state variable of the set of at least one controlling state variable by a calculation at least based on the dynamic model, • generating a controlling parameter by use of the state controller based on the at least one derived controlling state variable, the controlling parameter being adapted to provide driving the driving unit so that the at least one derived controlling state variable and/or actual state is affected in defined manner, and • applying the controlling parameter to the driving unit so that the structural components (11-15,52,53) are moved in defined manner relative to each other.
A mobile work platform assembly comprising: a platform adapted to be mounted to a vehicle, sized to receive an operator thereupon; a control panel supported upon the platform; a caution switch supported upon the platform in electrical communication with the control panel to provide a caution signal to the control panel indicative of a caution event; a flexible member connected to the caution switch to extend across the control panel and spaced apart from the control panel so that a predetermined force upon the flexible member actuates the caution switch; wherein the platform provides an operator workspace; and wherein a manual force upon the flexible member expands the operator workspace; characterized in that the mobile work platform assembly further comprises a magnet connected to one of an end of the flexible member and the platform to attach the flexible member to the platform. a platform adapted to be mounted to a vehicle, sized to receive an operator thereupon; a control panel supported upon the platform; a caution switch supported upon the platform in electrical communication with the control panel to provide a caution signal to the control panel indicative of a caution event; a flexible member connected to the caution switch to extend across the control panel and spaced apart from the control panel so that a predetermined force upon the flexible member actuates the caution switch; wherein the platform provides an operator workspace; and wherein a manual force upon the flexible member expands the operator workspace; characterized in that the mobile work platform assembly further comprises a magnet connected to one of an end of the flexible member and the platform to attach the flexible member to the platform.
A method for a communication between a base station and a user equipment in a wireless communication system, the method comprising: transmitting, by the base station, data to the user equipment; and receiving, by the base station, at least one type of uplink control information, UCI, transmitted from the user equipment, through a physical uplink control channel, PUCCH, of a subframe, wherein transmission power of the PUCCH is determined by the user equipment based on a PUCCH format dependent value, and wherein: when the user equipment transmits acknowledgement/negative acknowledgement, ACK/NACK, information for the data and periodic channels state information, CSI, through a PUCCH format 3, if PUCCH format 3 is configured to be transmitted through two antenna ports or if a total sum of the ACK/NACK information and the periodic CSI is larger than 11 bits, the PUCCH format dependent value is determined as Equation 1 given below, and if PUCCH format 3 is configured to be transmitted through a single antenna port and if a total sum of the ACK/NACK information and the periodic CSI is equal to or smaller than 11 bits, the PUCCH format dependent value is determined as Equation 2 given below, h n CQI n HARQ n SR = n HARQ + n SR + n CQI − 1 / 3 h n CQI n HARQ n SR = n HARQ + n SR + n CQI − 1 / 2, In Equations 1 and 2 given above, h(n CQI, n HARQ,n SR) represents the PUCCH format dependent value, n HARQ represents a number of bits of the ACK/NACK information, n CQI represents a number of bits of the periodic CSI, and n SR is 1 or 0. transmitting, by the base station, data to the user equipment; and receiving, by the base station, at least one type of uplink control information, UCI, transmitted from the user equipment, through a physical uplink control channel, PUCCH, of a subframe, wherein transmission power of the PUCCH is determined by the user equipment based on a PUCCH format dependent value, and when the user equipment transmits acknowledgement/negative acknowledgement, ACK/NACK, information for the data and periodic channels state information, CSI, through a PUCCH format 3, if PUCCH format 3 is configured to be transmitted through two antenna ports or if a total sum of the ACK/NACK information and the periodic CSI is larger than 11 bits, the PUCCH format dependent value is determined as Equation 1 given below, and if PUCCH format 3 is configured to be transmitted through a single antenna port and if a total sum of the ACK/NACK information and the periodic CSI is equal to or smaller than 11 bits, the PUCCH format dependent value is determined as Equation 2 given below, h n CQI n HARQ n SR = n HARQ + n SR + n CQI − 1 / 3 h n CQI n HARQ n SR = n HARQ + n SR + n CQI − 1 / 2, In Equations 1 and 2 given above, h(n CQI, n HARQ,n SR) represents the PUCCH format dependent value, n HARQ represents a number of bits of the ACK/NACK information, n CQI represents a number of bits of the periodic CSI, and n SR is 1 or 0. h(n CQI, n HARQ,n SR) represents the PUCCH format dependent value, n HARQ represents a number of bits of the ACK/NACK information, n CQI represents a number of bits of the periodic CSI, and n SR is 1 or 0.
A medical implantable paravalvular leakage occlusion device (100, 200) for occlusion of paravalvular leakage at a heart valve formed of a braiding of at least one thread, said braiding comprises a structural formation having a collapsed and an expanded shape, and said structural formation comprises a proximal and a distal portion (103, 104), a longitudinal axis extending between said proximal and distal portion, a waist of reduced cross section between said distal and proximal portion, characterized in that said device is rotational symmetric around said longitudinal axis, and wherein at least one of said proximal and distal portion comprises a peripheral edge (107, 108) that comprises radially opposed edge sections (112, 112', 113, 113') that are, each, alternatingly concave and convex radially outwards in a direction substantially perpendicular to said longitudinal axis, wherein radially opposed convex edge sections having a first (109, 109') radius of curvature in a direction substantially perpendicular to said longitudinal axis and radially opposed concave edge sections having a second (110, 110') radius of curvature in a direction substantially perpendicular to said longitudinal axis, wherein said first radius of curvature is different from said second radius of curvature, wherein said peripheral edge is concave radially outwards in a direction substantially perpendicular to said longitudinal axis to follow the convex shape of a curvature of a heart valve.