mhurhangee/ep-ind-claims huggingface dataset:
A subcutaneous vein access port to be implanted into a living body to be connected to a subcutaneous vein, the subcutaneous vein access port comprising: a housing formed therein with a receiving portion to which a medicine is supplied; a cover membrane disposed at an upper end of the housing and sealing an upper side of the receiving portion; a conduit provided to the housing and configured to be inserted into the subcutaneous vein to connect the subcutaneous vein to the receiving portion; a light source configured for emitting light such that the light from the light source is discharged outside through the cover membrane; a power supply disposed in the housing; and a substrate disposed in the housing and electrically connecting the power supply to the light source, characterized in that the housing comprises: a body formed therethrough with a coupling hole to which the conduit is connected; and a partition dividing an interior of the body into a first space and a second space, wherein the first space is positioned above the partition and the second space is positioned below the partition, wherein the receiving portion is a space defined by the first space and a lower surface of the cover membrane, and wherein the power supply and the substrate are disposed in the second space. a housing formed therein with a receiving portion to which a medicine is supplied; a cover membrane disposed at an upper end of the housing and sealing an upper side of the receiving portion; a conduit provided to the housing and configured to be inserted into the subcutaneous vein to connect the subcutaneous vein to the receiving portion; a light source configured for emitting light such that the light from the light source is discharged outside through the cover membrane; a power supply disposed in the housing; and a substrate disposed in the housing and electrically connecting the power supply to the light source, characterized in that the housing comprises: a body formed therethrough with a coupling hole to which the conduit is connected; and a partition dividing an interior of the body into a first space and a second space, wherein the first space is positioned above the partition and the second space is positioned below the partition, wherein the receiving portion is a space defined by the first space and a lower surface of the cover membrane, and wherein the power supply and the substrate are disposed in the second space.
A computer-readable medium storing instructions that, when executed by one or more processors, cause the one or more processors to perform: identifying a set of positions of a plurality of anatomic landmarks, the plurality of anatomic landmarks rendered in an anatomic model of passageways of a patient anatomy in a model frame of reference; receiving fluoroscopic image data (600, 710, 810, 1000, 1010) of the patient anatomy while a portion of a medical instrument (104, 202, 360, 1002) traverses the plurality of anatomic landmarks in the passageways of the patient anatomy, the fluoroscopic image data having a fluoroscopic frame of reference; identifying a set of positions of the portion of the medical instrument at the plurality of anatomic landmarks in the fluoroscopic frame of reference, wherein identifying the set of positions of the portion of the medical instrument in the fluoroscopic frame of reference includes identifying a shape of the portion of the medical instrument in the fluoroscopic frame of reference based on shape information received from a shape sensor (222, 364); and registering the set of positions of the plurality of anatomic landmarks in the model frame of reference and the set of positions of the portion of the medical instrument at the plurality of anatomic landmarks in the fluoroscopic frame of reference to a common frame of reference. identifying a set of positions of a plurality of anatomic landmarks, the plurality of anatomic landmarks rendered in an anatomic model of passageways of a patient anatomy in a model frame of reference; receiving fluoroscopic image data (600, 710, 810, 1000, 1010) of the patient anatomy while a portion of a medical instrument (104, 202, 360, 1002) traverses the plurality of anatomic landmarks in the passageways of the patient anatomy, the fluoroscopic image data having a fluoroscopic frame of reference; identifying a set of positions of the portion of the medical instrument at the plurality of anatomic landmarks in the fluoroscopic frame of reference, wherein identifying the set of positions of the portion of the medical instrument in the fluoroscopic frame of reference includes identifying a shape of the portion of the medical instrument in the fluoroscopic frame of reference based on shape information received from a shape sensor (222, 364); and registering the set of positions of the plurality of anatomic landmarks in the model frame of reference and the set of positions of the portion of the medical instrument at the plurality of anatomic landmarks in the fluoroscopic frame of reference to a common frame of reference.
A mobile computing device to securely boot from a web server, the mobile computing device comprising: a web boot module configured to determine a remote boot address that specifies a location of a boot resource of the web server; a web engine module configured to open a secure connection from the mobile computing device to the web server; and a remote resource mapping module; wherein the web boot module is configured to supply the remote boot address to the remote resource mapping module, and wherein the remote resource mapping module is configured to (i) access the boot resource of the web server using the web engine module, (ii) install a firmware protocol interface for a local firmware protocol on the mobile computing device and (iii) map the boot resource of the web server to the local firmware protocol; wherein the firmware protocol interface is a function call interface which is invoked by the web boot module to execute the boot resource as a firmware image. a web boot module configured to determine a remote boot address that specifies a location of a boot resource of the web server; a web engine module configured to open a secure connection from the mobile computing device to the web server; and a remote resource mapping module; wherein the web boot module is configured to supply the remote boot address to the remote resource mapping module, and wherein the remote resource mapping module is configured to (i) access the boot resource of the web server using the web engine module, (ii) install a firmware protocol interface for a local firmware protocol on the mobile computing device and (iii) map the boot resource of the web server to the local firmware protocol; wherein the firmware protocol interface is a function call interface which is invoked by the web boot module to execute the boot resource as a firmware image.
An electromechanical actuator, EMA, for use as a braking assembly comprising: an EMA housing; a ball nut extending axially within the EMA housing; an actuator drive unit, ADU, housing disposed radially inward to the bull nut and extending axially within the ball screw, the ADU housing having a proximal stop that is coupled to and protrudes from an outer surface of a proximal portion of the ADU housing; and a ball screw extending axially within the ball nut; and wherein the ball nut is configured to advance axially in a distal direction away from the proximal stop and to retract axially in a proximal direction in response to a rotation by the ball screw, and wherein the ball nut is configured to be halted in the axially proximal translation in response to contact with the proximal stop; characterised in that the EMA further comprises: an electromechanical drive motor housed in the ADU housing, and in that the proximal stop comprises a continuous annular structure and includes a compliant surface comprising at least one of a foam or rubber. an EMA housing; a ball nut extending axially within the EMA housing; an actuator drive unit, ADU, housing disposed radially inward to the bull nut and extending axially within the ball screw, the ADU housing having a proximal stop that is coupled to and protrudes from an outer surface of a proximal portion of the ADU housing; and a ball screw extending axially within the ball nut; and wherein the ball nut is configured to advance axially in a distal direction away from the proximal stop and to retract axially in a proximal direction in response to a rotation by the ball screw, and wherein the ball nut is configured to be halted in the axially proximal translation in response to contact with the proximal stop; wherein the ball nut is configured to advance axially in a distal direction away from the proximal stop and to retract axially in a proximal direction in response to a rotation by the ball screw, and wherein the ball nut is configured to be halted in the axially proximal translation in response to contact with the proximal stop; characterised in that the EMA further comprises: an electromechanical drive motor housed in the ADU housing,
Method for installing a gas-insulated electrical transmission line a tunnel, wherein, in the method, a plurality of line modules are assembled to form the transmission line, characterized in that - in a prefabrication step, groups of line modules are connected to form strand segments, - the prefabricated strand segments are transported to their individually predetermined installation locations within the tunnel, and - the two strand ends of the strand segments are each connected in the tunnel to the strand ends of the strand segments situated in front and behind, wherein - the line modules have a length between 5 and 15 metres and, for the purpose of the prefabrication, strand segments are produced with a length between 100 and 1000 metres, wherein the line modules each have an internal inner tube and a jacket tube and, for the purpose of the preassembly, the inner tubes and the jacket tubes of the line modules are each electrically connected to one another and, for the purpose of connecting the strand segments in the tunnel, the inner tubes and the jacket tubes of the strand segments are electrically connected to one another. - in a prefabrication step, groups of line modules are connected to form strand segments, - the prefabricated strand segments are transported to their individually predetermined installation locations within the tunnel, and - the two strand ends of the strand segments are each connected in the tunnel to the strand ends of the strand segments situated in front and behind, wherein - the line modules have a length between 5 and 15 metres and, for the purpose of the prefabrication, strand segments are produced with a length between 100 and 1000 metres, wherein the line modules each have an internal inner tube and a jacket tube and, for the purpose of the preassembly, the inner tubes and the jacket tubes of the line modules are each electrically connected to one another and, for the purpose of connecting the strand segments in the tunnel, the inner tubes and the jacket tubes of the strand segments are electrically connected to one another.
Process for the destruction of fibre-containing residues, which is characterized by the following process steps: (i) providing a fiber-containing material comprising WHO fibers having a length to diameter aspect ratio of greater than 3:1; and (ii) reacting the fiber-containing material resulting from process step (i) with a water glass, characterized in that the molar modulus SiO 2 /M 2 O of the water glass (molarity) is preferably less than 3.35, wherein M 2 O denotes the total amount of oxides of alkali metals M. (i) providing a fiber-containing material comprising WHO fibers having a length to diameter aspect ratio of greater than 3:1; and (ii) reacting the fiber-containing material resulting from process step (i) with a water glass,
A method for displaying contents in a smart home environment, comprising: measuring a network status of each of a plurality of terminal devices (100, 110, 120, 130) included in a home network which configures the smart home environment, wherein the measuring the network status includes measuring an available bandwidth; recognizing terminal information including a location and a property of each terminal device; and displaying each terminal device and the network status and the terminal information thereof on a screen of a mobile terminal (120, 130) through which a user is currently reproducing the contents, wherein each terminal device is capable of reproducing the contents, when the user selects any one of the displayed terminal devices, adjusting a quality of the contents in accordance with the network status and the terminal information of the selected terminal device, reproducing the contents having quality adjusted in accordance with the network status and the terminal information of the terminal device selected through the selected terminal device, and wherein the displaying of each terminal device comprises each terminal device being displayed as an icon, wherein a location of the icon indicates a location of each terminal device in the smart home environment and a size of the icon indicates a resolution of the terminal device, wherein connection lines to each terminal device are displayed and a thickness of the connection lines indicates the measured available bandwidth. measuring a network status of each of a plurality of terminal devices (100, 110, 120, 130) included in a home network which configures the smart home environment, wherein the measuring the network status includes measuring an available bandwidth; recognizing terminal information including a location and a property of each terminal device; and displaying each terminal device and the network status and the terminal information thereof on a screen of a mobile terminal (120, 130) through which a user is currently reproducing the contents, wherein each terminal device is capable of reproducing the contents, when the user selects any one of the displayed terminal devices, adjusting a quality of the contents in accordance with the network status and the terminal information of the selected terminal device, reproducing the contents having quality adjusted in accordance with the network status and the terminal information of the terminal device selected through the selected terminal device, and wherein the displaying of each terminal device comprises each terminal device being displayed as an icon, wherein a location of the icon indicates a location of each terminal device in the smart home environment and a size of the icon indicates a resolution of the terminal device, wherein connection lines to each terminal device are displayed and a thickness of the connection lines indicates the measured available bandwidth.
A method of refurbishing a consumable component or a composite comprising a consumable component adhered to a non-consumable component, the method comprising: providing a non-consumable first component; providing a consumable second component; adhering the first component to the second component using an adhesive stack, the adhesive stack comprising: a first adhesive impregnated scrim layer disposed between the first component and the second component; and a separate bulk adhesive layer disposed between the first component and the second component; separating the first component from the second component by cleaving the adhesive stack to provide a cleaved first component and a cleaved second component, the cleaved first component comprising the first scrim layer and a first portion of the bulk adhesive layer and the cleaved second component comprising a second portion of the bulk adhesive layer; and removing the first scrim layer and the first portion of the bulk adhesive layer from the first component by peeling the first scrim layer away from the first component to remove the first scrim layer and the first portion of the bulk adhesive layer in one piece or substantially in one piece. providing a non-consumable first component; providing a consumable second component; adhering the first component to the second component using an adhesive stack, the adhesive stack comprising: a first adhesive impregnated scrim layer disposed between the first component and the second component; and a separate bulk adhesive layer disposed between the first component and the second component; a first adhesive impregnated scrim layer disposed between the first component and the second component; and a separate bulk adhesive layer disposed between the first component and the second component; separating the first component from the second component by cleaving the adhesive stack to provide a cleaved first component and a cleaved second component, the cleaved first component comprising the first scrim layer and a first portion of the bulk adhesive layer and the cleaved second component comprising a second portion of the bulk adhesive layer; and removing the first scrim layer and the first portion of the bulk adhesive layer from the first component by peeling the first scrim layer away from the first component to remove the first scrim layer and the first portion of the bulk adhesive layer in one piece or substantially in one piece.
An objective for inspecting a specimen, said objective comprising: a focusing lens group comprising multiple focusing lens elements configured to receive light energy and form focused light energy; two field lens elements (710, 711) oriented to receive focused light energy from said focusing lens group (601, 701, 801) and provide intermediate light energy; a catadioptric arrangement positioned to receive the intermediate light energy from the two field lens elements (710, 711) and form controlled light energy, wherein said catadioptric arrangement consists of three elements wherein two of these elements are reflectively coated lens elements, and an immersion liquid disposed between the catadioptric arrangement and the specimen, wherein the first reflectively coated lens element of the catadioptric arrangement is a concave spherical reflector having a central optical aperture where reflective material is absent that receives the intermediate light energy from the field lens elements, the second reflectively coated lens element of the catadioptric arrangement is a Mangin mirror element having a central optical aperture where reflective material is absent; and the third element of the catadioptric arrangement is an immersion lens contacting the immersion liquid and transmitting a controlled light energy out from the catadioptric arrangement, the immersion lens is located in front of the Mangin mirror element while the Mangin mirror element is located in front of the concave spherical reflector, the absence of reflective material from the center of the concave spherical reflector and the Mangin mirror element allows light to pass from the specimen and the immersion liquid, through the immersion lens, through the Mangin mirror element, reflect from a surface of the concave spherical reflector onto the Mangin mirror element, and transmit through the concave spherical reflector to form an intermediate image after the concave spherical reflector, wherein the intermediate image is located between the two field lens elements (710, 711); and wherein all lenses are constructed of a single glass material.
Method for obtaining the deformation of a tyre casing subjected to a load, in an inflated and laden state rotating at a rotational speed W, said tyre casing having a crown, two sidewalls and two beads of revolution about a natural axis of rotation and a median plane, the intersection between the median plane and the natural axis of rotation defining a wheel centre, comprising the following steps: - fixing at least one sensor on the tyre casing in line with the crown at a radial position R with respect to the natural axis of rotation and able to generate at least one output signal proportional to the acceleration experienced by said sensor in the tyre casing; - acquiring a first signal comprising at least the amplitude of the acceleration in the direction normal to the crown when running at the rotational speed W; - delimiting the first signal over a number N TdR of wheel revolutions, N TdR being greater than or equal to 1, N TdR being preferably a whole number, so as to construct a wheel revolution signal; - determining a reference acceleration γ reference that is a function of the rotational speed W and of the position of the at least one sensor; - defining a first energy density S which is a function of the wheel revolution signal, and of the reference acceleration γ reference, and which is denoted S + when the wheel revolution signal is above a threshold value A, or is denoted S - when the wheel revolution signal is below or equal to said threshold value A; - identifying the deformation of the tyre casing, which deformation is generated by the load as a function of the reference acceleration γ reference and of the first energy density S which are associated with the position of the at least one sensor. - fixing at least one sensor on the tyre casing in line with the crown at a radial position R with respect to the natural axis of rotation and able to generate at least one output signal proportional to the acceleration experienced by said sensor in the tyre casing; - acquiring a first signal comprising at least the amplitude of the acceleration in the direction normal to the crown when running at the rotational speed W; - delimiting the first signal over a number N TdR of wheel revolutions, N TdR being greater than or equal to 1, N TdR being preferably a whole number, so as to construct a wheel revolution signal; - determining a reference acceleration γ reference that is a function of the rotational speed W and of the position of the at least one sensor; - defining a first energy density S which is a function of the wheel revolution signal, and of the reference acceleration γ reference, and which is denoted S + when the wheel revolution signal is above a threshold value A, or is denoted S - when the wheel revolution signal is below or equal to said threshold value A; - identifying the deformation of the tyre casing, which deformation is generated by the load as a function of the reference acceleration γ reference and of the first energy density S which are associated with the position of the at least one sensor.
Moulded-foam element made of polyurethane foam (PUR foam) and/or polyisocyanurate foam (PIR foam) produced in a continuous procedure and having a homogeneous bulk density between 28 kg/m 3 and 40 kg/m 3, in particular for composite heat insulation systems (EIFS/ETICS) on buildings, with a cell structure which has geometrical structures (14, 15, 16) which are distinguishable in at least two spatial directions (10, 11, 12) oriented perpendicularly to each other, and which is embodied free of foils.
System for sterilising sterilisation units by means of exposure to radiation, in particular for sterilising sterilisation units containing medical objects by means of exposure to radiation, comprising a conveyor system for transporting the sterilisation units through a sterilising environment along a conveyor line, wherein the sterilising environment is exposed to radioactive radiation from a radiation source and at least one conveyor section (F3, F4, F5, F6, F7, F8, F9, F10) of the conveyor line extends along the periphery of the radiation source, wherein the radiation source, for example a Co-60 source, emits gamma radiation, characterised in that the conveyor system comprises at least one lifting beam conveyor with at least one stationary support beam and at least one movable lifting beam, which can be moved in a longitudinal and a vertical direction with respect to the at least one stationary support beam, wherein the at least one stationary support beam has a central region between two fixed bearings, which is supported via at least one tensile element under tensile stress, which is arranged in the central region and is attached to at least one vertical strut, which is arranged in the region of at least one of the fixed bearings, such that the tensile element extends in a direction diagonal to the longitudinal and vertical direction.