mhurhangee/ep-ind-claims huggingface dataset:
Packaging structure (100, 200, 300) including at least one cavity wherein at least one micro-device is provided, the cavity being bounded by at least a first substrate and at least a second substrate integral with the first substrate through at least one bonding interface comprising at least one metal or dielectric material, wherein at least one main face of the second substrate arranged facing the first substrate is covered with at least one layer of at least one getter material, the bonding interface being arranged between the first substrate and the layer of getter material, the thickness of the second substrate being higher than or equal to around 50 μm and forming a continuous cover.
An optical glass comprising a composition including, in an cationic % expression, P 5+ in an amount of 36 to 40%, Al 3+ in an amount of 11 to 16%, Mg 2+ in an amount of 11 to 19%, Ca 2+ in an amount of greater than 0% and 2% or less, Sr 2+ in an amount of 0 to 4%, Ba 2+ in an amount of 25 to 31 %, Zn 2+ in an amount of 0% or more and less than 2.4%, and Y 3+ in an amount of 2 to 7%, a total amount of Zn 2+ and Y 3+ (Zn 2+ + Y 3+) being 3 to 7%, and in an anionic % expression, O 2- in an amount of 74 to 78%, and F- in an amount of 22 to 26%, wherein Li +, Na +, K +, La 3+, and Gd 3+ are not included, and the optical glass further comprising a refractive index (nd) of 1.58 to 1.60 and an Abbe number (vd) of 67 to 69.
Open roof construction for a vehicle having a roof opening in a fixed roof, the fixed roof having a roof edge defining the roof opening and protruding in a downward direction and further comprising a stationary part, at least one panel for at least partly opening and closing the roof opening, the panel being movably supported by an operating mechanism, guided in a guide rail of the stationary part, extending along at least a longitudinal side of the roof opening, the panel being movable in vertical and longitudinal directions with respect to the roof opening, the stationary part being provided with sealing means comprising a first seal part capable of sealing the panel towards the fixed roof, and a second seal part capable of sealing the stationary part against an inner part of the fixed roof, wherein the sealing means further comprises a third seal part capable of sealing the stationary part against a lower part of the roof edge, characterized in that the third seal part comprises a lower part provided with a protruding part by which the sealing means is mounted to the stationary part and an upper part extending in a substantially horizontal direction, and further comprises lateral side parts connecting the lower part with the upper part and wherein said upper part is provided with the first and second seal part and said upper part is biased against the lower part of the roof edge, said upper part being substantially stiff in order to avoid any deflection of said upper part.
A method in a first node for adapting a multi-antenna transmission to a second node over an effective channel, the effective channel having multiple inputs and at least one output, the first node and the second node being comprised in a wireless communication system, the method comprising the steps of: obtaining at least one symbol stream, determining a precoding matrix having a block diagonal structure, wherein the precoding matrix matches characteristics of the effective channel modelled as an effective channel matrix having a block diagonal structure, precoding the at least one symbol stream with the determined precoding matrix, and transmitting the precoded at least one symbol stream over the effective channel to the second node. obtaining at least one symbol stream, determining a precoding matrix having a block diagonal structure, wherein the precoding matrix matches characteristics of the effective channel modelled as an effective channel matrix having a block diagonal structure, precoding the at least one symbol stream with the determined precoding matrix, and transmitting the precoded at least one symbol stream over the effective channel to the second node.
A thrust reverser assembly for a gas turbine engine having a core engine, the thrust reverser assembly comprising: a nacelle surrounding the core engine and defining a bypass duct between the nacelle and the core engine, the nacelle comprising a translating cowl adapted to translate in an aft direction; a slider assembly operatively coupled to the translating cowl; a translating structure within the nacelle and/or the translating cowl, the translating structure comprising a translating cascade and adapted to translate in the aft direction, the translating structure comprising at least one opening that is exposed to the bypass duct when the translating cowl is translated in the aft direction; and a blocker door, characterised in that the blocker door is pivotally coupled to the translating cascade by one or more pivot assemblies such that the blocker door does not move in the fore and aft directions relative to the translating cascade, but is arranged to pivot with respect to the translating cascade during at least some of the range of translation of the translating cascade, the blocker door comprising a slider track engaging the slider assembly; and in that the slider assembly is mounted to a radially inner wall of the translating cowl, one end of the slider assembly is disposed within the slider track, and the slider track is formed within a radially inner surface of the blocker door. a nacelle surrounding the core engine and defining a bypass duct between the nacelle and the core engine, the nacelle comprising a translating cowl adapted to translate in an aft direction; a slider assembly operatively coupled to the translating cowl; a translating structure within the nacelle and/or the translating cowl, the translating structure comprising a translating cascade and adapted to translate in the aft direction, the translating structure comprising at least one opening that is exposed to the bypass duct when the translating cowl is translated in the aft direction; and a blocker door, characterised in that the blocker door is pivotally coupled to the translating cascade by one or more pivot assemblies such that the blocker door does not move in the fore and aft directions relative to the translating cascade, but is arranged to pivot with respect to the translating cascade during at least some of the range of translation of the translating cascade, the blocker door comprising a slider track engaging the slider assembly; and in that the slider assembly is mounted to a radially inner wall of the translating cowl, one end of the slider assembly is disposed within the slider track, and the slider track is formed within a radially inner surface of the blocker door.
A portable hot air generator apparatus comprising a handle and a body which extends along a horizontal main axis the apparatus being substantially symmetrical relative to a vertical longitudinal plane, characterized in that it further comprises a system for damping between said handle and said body, so that the handle does not have direct contact with the body.
Method for monitoring the opening state of a control valve of a coolant circuit of an internal combustion engine, wherein the control valve has a valve member that can be actuated by an actuator for releasing and/or blocking a coolant flow in the coolant circuit having a heat exchanger and a device for recording the position of the valve member, characterised in that a first actual value representing the position of the valve member is recorded by the device before starting the internal combustion engine, and the actual value is compared to a reference value which corresponds to a blocking position of the valve member.
A method of forming a wellbore, comprising: providing a drill string having an outer string that includes a plurality of spaced apart landing locations (152, 154, 156) and an inner string configured to attach to the outer string at each of the plurality of landing locations (152, 154, 156), the inner string comprising a drill bit, a sensor and a first reamer, the sensor being located between the drill bit and the first reamer, and the outer string comprising a second reamer at a lower end thereof; attaching the inner string to a first landing location and drilling the wellbore to a first size with the drill bit, and enlarging with the first reamer a first portion of the wellbore of the first size to a second size that is at least as large as the outer string; obtaining with the sensor measurements relating to a downhole parameter; attaching the inner string at a second landing location uphole of the first landing location and enlarging with the second reamer a second portion of the wellbore of the first size to at least the size of the outer string; and attaching the inner string to the outer string at an upmost landing location and cementing an annulus between the outer string and the wellbore. providing a drill string having an outer string that includes a plurality of spaced apart landing locations (152, 154, 156) and an inner string configured to attach to the outer string at each of the plurality of landing locations (152, 154, 156), the inner string comprising a drill bit, a sensor and a first reamer, the sensor being located between the drill bit and the first reamer, and the outer string comprising a second reamer at a lower end thereof; attaching the inner string to a first landing location and drilling the wellbore to a first size with the drill bit, and enlarging with the first reamer a first portion of the wellbore of the first size to a second size that is at least as large as the outer string; obtaining with the sensor measurements relating to a downhole parameter; attaching the inner string at a second landing location uphole of the first landing location and enlarging with the second reamer a second portion of the wellbore of the first size to at least the size of the outer string; and attaching the inner string to the outer string at an upmost landing location and cementing an annulus between the outer string and the wellbore.
A polypeptide selected from a bone morphogenetic protein 9 variant lacking osteogenic activity and a prodomain bound form of BMP9 (pro.BMP9) variant lacking osteogenic activity for use in the treatment of a vascular disease or a respiratory disease.
Use of continuous laminates manufactured according to a method comprising the steps of - providing a plurality of parallel fibers, - embedding the fibers in a curable matrix material, - curing the matrix material so as to obtain a fiber reinforced laminate having upper and lower major surfaces (28,30), and - forming channels (32,34) into at least one of the major upper and lower major surfaces (28,30) of the laminate wherein the channels (32,34) on the upper and/or lower major surfaces (28,30) are angled with respect to the direction of the fibers, in an infusion process for making structures from the laminate by arranging layers of the laminate on top of each other within a mould and infusing a curable material between the layers of the laminate arranged within the mould. - providing a plurality of parallel fibers, - embedding the fibers in a curable matrix material, - curing the matrix material so as to obtain a fiber reinforced laminate having upper and lower major surfaces (28,30), and - forming channels (32,34) into at least one of the major upper and lower major surfaces (28,30) of the laminate wherein the channels (32,34) on the upper and/or lower major surfaces (28,30) are angled with respect to the direction of the fibers, in an infusion process for making structures from the laminate by arranging layers of the laminate on top of each other within a mould and infusing a curable material between the layers of the laminate arranged within the mould.
A computer-implemented method for estimating a total scatter factor (St) in dose calculation for radiotherapy, wherein a linear accelerator, LINAC, is used to irradiate a medium, comprising: receiving geometric data of the LINAC, wherein the geometric data comprises geometric information about a LINAC head of the LINAC, wherein the LINAC head comprises at least one collimating device (10, 20) and at least one irradiation source; determining a head scatter factor (Sh) based on a geometric head model using the received geometric data, wherein the head scatter factor (Sh) quantifies a scatter contribution from the LINAC head; determining a phantom scatter factor (Sp) based on an empiric phantom scatter formula using the received geometric data, wherein the phantom scatter factor (Sp) quantifies a scatter contribution from the irradiated medium; and determining an estimated total scatter factor (St) using the determined head scatter factor (Sh) and the determined phantom scatter factor (Sp). receiving geometric data of the LINAC, wherein the geometric data comprises geometric information about a LINAC head of the LINAC, wherein the LINAC head comprises at least one collimating device (10, 20) and at least one irradiation source; determining a head scatter factor (Sh) based on a geometric head model using the received geometric data, wherein the head scatter factor (Sh) quantifies a scatter contribution from the LINAC head; determining a phantom scatter factor (Sp) based on an empiric phantom scatter formula using the received geometric data, wherein the phantom scatter factor (Sp) quantifies a scatter contribution from the irradiated medium; and determining an estimated total scatter factor (St) using the determined head scatter factor (Sh) and the determined phantom scatter factor (Sp).
Method for the synthesis of khusimone by bringing zizanal into contact with an oxidizing reagent of the peracid or peroxide type or a mixture of peracids or a mixture of peroxides or a mixture of peracids and peroxides which are themselves alone or in a mixture.
A printing cylinder assembly for a printing machine, comprising: a rotating shaft pivotally supported at one axial end side thereof in a cantilever structure, wherein said rotating shaft is formed at one axial end side thereof with a sleeve cylinder supporting tapered surface, and a sleeve cylinder removably mounted on said rotating shaft so that the sleeve cylinder can be fitted on and extracted from the rotating shaft from the other axial end side of the rotating shaft, wherein said sleeve cylinder is formed at one axial end side of an inner diameter portion thereof with a tapered surface, and wherein the tapered surface of said sleeve cylinder is configured to be fitted on and in contact with the sleeve cylinder supporting tapered surface of said rotating shaft and thereby detachably coupling the one axial end side of the sleeve cylinder with the one axial end side of the rotating shaft, characterized in that the printing cylinder assembly further comprises: a sleeve cylinder pushing member which is mounted on said rotating shaft at a side that is closer to said one axial end side of the rotating shaft than said sleeve cylinder supporting tapered surface is, and which is configured to push said sleeve cylinder towards said other axial end side of the rotating shaft. a rotating shaft pivotally supported at one axial end side thereof in a cantilever structure, wherein said rotating shaft is formed at one axial end side thereof with a sleeve cylinder supporting tapered surface, and a sleeve cylinder removably mounted on said rotating shaft so that the sleeve cylinder can be fitted on and extracted from the rotating shaft from the other axial end side of the rotating shaft, wherein said sleeve cylinder is formed at one axial end side of an inner diameter portion thereof with a tapered surface, and wherein the tapered surface of said sleeve cylinder is configured to be fitted on and in contact with the sleeve cylinder supporting tapered surface of said rotating shaft and thereby detachably coupling the one axial end side of the sleeve cylinder with the one axial end side of the rotating shaft, characterized in that the printing cylinder assembly further comprises: a sleeve cylinder pushing member which is mounted on said rotating shaft at a side that is closer to said one axial end side of the rotating shaft than said sleeve cylinder supporting tapered surface is, and which is configured to push said sleeve cylinder towards said other axial end side of the rotating shaft. a sleeve cylinder pushing member which is mounted on said rotating shaft at a side that is closer to said one axial end side of the rotating shaft than said sleeve cylinder supporting tapered surface is, and which is configured to push said sleeve cylinder towards said other axial end side of the rotating shaft.
A resolver comprising: a stationary unit (51; 51a) having a substantially annular shape centered about a center axis; and a rotary unit (52; 52a) having a substantially annular shape centered about the center axis, the rotary unit (52; 52a) arranged inside or outside of the stationary unit (51; 51a) and supported so as to rotate around the center axis with respect to the stationary unit (51; 51a); wherein the stationary unit (51; 51a) includes: teeth radially arranged around the center axis such that first ends of the teeth face the rotary unit (52; 52a); an insulator arranged to cover surfaces of the teeth; output coils (C2, C3) include at least one of two output wires (L2, L3) wound around each of the teeth via the insulator in a first number of turns; and excitation coils;: characterized in that the excitation coils include at least one excitation wire wound around at least one of the output coils (C2, C3) in a second number of turns less than the first number of turns such that the at least one excitation wire overlaps the at least one of the output wires (L2, L3). a stationary unit (51; 51a) having a substantially annular shape centered about a center axis; and a rotary unit (52; 52a) having a substantially annular shape centered about the center axis, the rotary unit (52; 52a) arranged inside or outside of the stationary unit (51; 51a) and supported so as to rotate around the center axis with respect to the stationary unit (51; 51a); wherein teeth radially arranged around the center axis such that first ends of the teeth face the rotary unit (52; 52a); an insulator arranged to cover surfaces of the teeth; output coils (C2, C3) include at least one of two output wires (L2, L3) wound around each of the teeth via the insulator in a first number of turns; and excitation coils;: characterized in that the excitation coils include at least one excitation wire wound around at least one of the output coils (C2, C3) in a second number of turns less than the first number of turns such that the at least one excitation wire overlaps the at least one of the output wires (L2, L3). characterized in that the excitation coils include at least one excitation wire wound around at least one of the output coils (C2, C3) in a second number of turns less than the first number of turns such that the at least one excitation wire overlaps the at least one of the output wires (L2, L3).
A method for determining indoor/outdoor state of a mobile device comprising: maintaining an indoor/outdoor state of the mobile device, wherein the indoor/outdoor state is selected from a plurality of possible states including an indoor state and an outdoor state; wherein the mobile device includes at least one first sensor and at least one second sensor, the at least one first sensor associated with higher power consumption than the at least one second sensor; gating off the at least one first sensor and using the at least one second sensor to obtain a sensor reading, if the at least one second sensor can generate a reading indicative of the indoor/outdoor state of the mobile device; using the at least one first sensor to obtain a sensor reading, if the second sensor cannot generate a reading indicative of the indoor/outdoor state of the mobile device; and updating the indoor/outdoor state of the mobile device based on a reading received from one of the at least one first and at least one second sensors. maintaining an indoor/outdoor state of the mobile device, wherein the indoor/outdoor state is selected from a plurality of possible states including an indoor state and an outdoor state; wherein the mobile device includes at least one first sensor and at least one second sensor, the at least one first sensor associated with higher power consumption than the at least one second sensor; gating off the at least one first sensor and using the at least one second sensor to obtain a sensor reading, if the at least one second sensor can generate a reading indicative of the indoor/outdoor state of the mobile device; using the at least one first sensor to obtain a sensor reading, if the second sensor cannot generate a reading indicative of the indoor/outdoor state of the mobile device; and updating the indoor/outdoor state of the mobile device based on a reading received from one of the at least one first and at least one second sensors.
A method of controlling a device (200, 400, 282), the method comprising: storing a plurality of privacy mode definitions, each privacy mode definition comprising a respective control state definition for each function in a plurality of functions of an electronic device, the plurality of functions comprising at least two of communications functions, sensor functions, application functions, or combinations of these; receiving an input (420, 500, 600) indicating a selected privacy mode definition from within the plurality of privacy mode definitions; setting a respective control state of each function in the plurality of functions based on each respective control state definition in the selected privacy mode definition; where the plurality of privacy mode definitions comprises a privacy mode definition associated with at least one of a geographical location and a time of day, and where receiving the input comprises receiving at least one of the geographic location or the time of day; wherein the method further comprises prioritizing the plurality of privacy mode definitions, a first priority being defined as to whether time selected privacy modes will override location selected privacy modes or whether location selected privacy modes will override time selected privacy modes. storing a plurality of privacy mode definitions, each privacy mode definition comprising a respective control state definition for each function in a plurality of functions of an electronic device, the plurality of functions comprising at least two of communications functions, sensor functions, application functions, or combinations of these; receiving an input (420, 500, 600) indicating a selected privacy mode definition from within the plurality of privacy mode definitions; setting a respective control state of each function in the plurality of functions based on each respective control state definition in the selected privacy mode definition; where the plurality of privacy mode definitions comprises a privacy mode definition associated with at least one of a geographical location and a time of day, and where receiving the input comprises receiving at least one of the geographic location or the time of day; wherein the method further comprises prioritizing the plurality of privacy mode definitions, a first priority being defined as to whether time selected privacy modes will override location selected privacy modes or whether location selected privacy modes will override time selected privacy modes.