mhurhangee/patent-ind-claim-en huggingface dataset:
A slit blade block comprising: a slit outer blade having a plurality of outer blade pieces ; a slit inner blade having a plurality of inner blade pieces ; and a comb component having a comb provided outside the slit outer blade , wherein the comb component is formed separately from the slit outer blade ; the comb has a plurality of protruding portions protruding in a direction away from the slit outer blade , and the plurality of protruding portions includes a plurality of types of protruding portions having different shapes. a slit outer blade having a plurality of outer blade pieces ; a slit inner blade having a plurality of inner blade pieces ; and a comb component having a comb provided outside the slit outer blade , wherein the comb component is formed separately from the slit outer blade ; the comb has a plurality of protruding portions protruding in a direction away from the slit outer blade , and the plurality of protruding portions includes a plurality of types of protruding portions having different shapes.
An identification tag for attaching to a selected position on a tool to automatically identify the tool , comprising: a base with a small footprint requiring a small area on the tool for attaching to the tool ; an identification attachment with a larger footprint; wherein said identification attachment comprises: an encasement that is connected to a second end of said base ; an identification circuit that fits into said encasement ; a cover to seal the encasement ; and wherein the identification circuit accepts communication queries and transmits identification information related to the tool wirelessly from within the encasement ; characterized in that the base serves as an interface for attaching the identification attachment to the selected position on the tool ; the base having two ends, one with the small footprint for attaching to the tool and the second end for attaching to the identification attachment; wherein the second end of the base includes two arms extending from the base and forming an arc. a base with a small footprint requiring a small area on the tool for attaching to the tool ; an identification attachment with a larger footprint; wherein said identification attachment comprises: an encasement that is connected to a second end of said base ; an identification circuit that fits into said encasement ; a cover to seal the encasement ; and wherein the identification circuit accepts communication queries and transmits identification information related to the tool wirelessly from within the encasement ; an encasement that is connected to a second end of said base ; an identification circuit that fits into said encasement ; a cover to seal the encasement ; and wherein the identification circuit accepts communication queries and transmits identification information related to the tool wirelessly from within the encasement ; characterized in that the base serves as an interface for attaching the identification attachment to the selected position on the tool ; the base having two ends, one with the small footprint for attaching to the tool and the second end for attaching to the identification attachment; wherein the second end of the base includes two arms extending from the base and forming an arc.
A prosthetic heart valve for implanting in a patient's heart, comprising: a stent having an annulus section adjacent a proximal end , an aortic section adjacent a distal end , a transition section between the annulus section and the aortic section, and a valve assembly disposed within the stent, the valve assembly being positioned entirely within the annulus section and including a cuff and a plurality of leaflets ; and at least one sensor coupled to the stent and configured to monitor the valve function within the patient's heart, the sensor including a body, an induction coil disposed within the body and a capacitor in electrical communication with the inductor coil, characterized in that the at least one sensor is disposed within the transition section or the aortic section of the stent, such that the at least one sensor is positioned between the cuff and the distal end of the stent. a stent having an annulus section adjacent a proximal end , an aortic section adjacent a distal end , a transition section between the annulus section and the aortic section, and a valve assembly disposed within the stent, the valve assembly being positioned entirely within the annulus section and including a cuff and a plurality of leaflets ; and at least one sensor coupled to the stent and configured to monitor the valve function within the patient's heart, the sensor including a body, an induction coil disposed within the body and a capacitor in electrical communication with the inductor coil, characterized in that the at least one sensor is disposed within the transition section or the aortic section of the stent, such that the at least one sensor is positioned between the cuff and the distal end of the stent.
Process for consolidating a soil by cyclic injections of expanding polyurethane resins, comprising the following steps: a) injecting by means of one or more tubes of a formulation of one or more expanding polyurethane resins [Fig. 6]; b) carrying out an acoustic monitoring during injection by means of acoustic detection means to detect the noise of the consolidating action of the injected formulation; c) locating said expanding formulation by detecting one or more acoustic parameters of the detected sound; d) iterating said steps for a predetermined number of injection cycles with pauses between successive cycles relating to the same injection point, wherein the subsequent cycle starts when said acoustic detection means do not detect noise; wherein said acoustic detection means comprise at least one movable detection device adapted to be placed on the vertical of the injection point and one or more fixed detection devices suitable to be arranged peripherally to the injection point to delimit an intervention area. a) injecting by means of one or more tubes of a formulation of one or more expanding polyurethane resins [Fig. 6]; b) carrying out an acoustic monitoring during injection by means of acoustic detection means to detect the noise of the consolidating action of the injected formulation; c) locating said expanding formulation by detecting one or more acoustic parameters of the detected sound; d) iterating said steps for a predetermined number of injection cycles with pauses between successive cycles relating to the same injection point, wherein the subsequent cycle starts when said acoustic detection means do not detect noise;
An avionics system for an aircraft, the avionics system comprising: a storage device for storing instructions for converting between airspeed types; and one or more data processors configured to execute the instructions to: generate a calibrated airspeed, CAS, of the aircraft based on sensor readings from a pitot tube and a static port adjusted for known instrument and position errors for the specific type and model of aircraft; convert the calibrated airspeed to an actual true airspeed, TAS, of the aircraft using a measured air density at a current altitude of the aircraft; determine an initial approximate relationship between the calibrated airspeed and a computed true airspeed as a function of a pressure altitude of the aircraft; generate an adjusted approximate relationship based on the actual true airspeed and the initial approximate relationship at a chosen pressure altitude; and estimate a future airspeed of the aircraft based on the adjusted approximate relationship and a future altitude. a storage device for storing instructions for converting between airspeed types; and one or more data processors configured to execute the instructions to: generate a calibrated airspeed, CAS, of the aircraft based on sensor readings from a pitot tube and a static port adjusted for known instrument and position errors for the specific type and model of aircraft; convert the calibrated airspeed to an actual true airspeed, TAS, of the aircraft using a measured air density at a current altitude of the aircraft; determine an initial approximate relationship between the calibrated airspeed and a computed true airspeed as a function of a pressure altitude of the aircraft; generate an adjusted approximate relationship based on the actual true airspeed and the initial approximate relationship at a chosen pressure altitude; and estimate a future airspeed of the aircraft based on the adjusted approximate relationship and a future altitude. generate a calibrated airspeed, CAS, of the aircraft based on sensor readings from a pitot tube and a static port adjusted for known instrument and position errors for the specific type and model of aircraft; convert the calibrated airspeed to an actual true airspeed, TAS, of the aircraft using a measured air density at a current altitude of the aircraft; determine an initial approximate relationship between the calibrated airspeed and a computed true airspeed as a function of a pressure altitude of the aircraft; generate an adjusted approximate relationship based on the actual true airspeed and the initial approximate relationship at a chosen pressure altitude; and estimate a future airspeed of the aircraft based on the adjusted approximate relationship and a future altitude.
A computer-based system for controlling a temperature of a thermal exchange medium of a patient temperature control system, comprising: a user interface for receiving user control input and providing corresponding output signals; and, a programmable control module for receiving said output signals and for storing control data in corresponding relation to a plurality of different patient temperature control phases, wherein said programmable control module comprises control logic for utilizing said output signals and stored control data to provide output control signals to a thermal exchanger of a patient temperature control system in corresponding relation to each of said plurality of different patient temperature control phases; wherein said programmable control module is operable to store at least two protocols each comprising the plurality of control phases and corresponding, different control data, and wherein said user interface is employable by a user to select either of said two protocols for use by said programmable control module in generating said output control signals; wherein said control data for a given one of said plurality of different patient temperature control phases comprises a target patient temperature and a duration measure; wherein the target patient temperature and the duration measure are configured to be presented numerically in a first portion of the user interface and configured to be presented graphically in a second portion of the user interface; and wherein said user interface is configured to allow for user input to establish phase-specific alarm condition data. a user interface for receiving user control input and providing corresponding output signals; and, a programmable control module for receiving said output signals and for storing control data in corresponding relation to a plurality of different patient temperature control phases, wherein said programmable control module comprises control logic for utilizing said output signals and stored control data to provide output control signals to a thermal exchanger of a patient temperature control system in corresponding relation to each of said plurality of different patient temperature control phases; wherein said programmable control module is operable to store at least two protocols each comprising the plurality of control phases and corresponding, different control data, and wherein said user interface is employable by a user to select either of said two protocols for use by said programmable control module in generating said output control signals; wherein said control data for a given one of said plurality of different patient temperature control phases comprises a target patient temperature and a duration measure; wherein the target patient temperature and the duration measure are configured to be presented numerically in a first portion of the user interface and configured to be presented graphically in a second portion of the user interface; and wherein said user interface is configured to allow for user input to establish phase-specific alarm condition data.
A method for coating with titanium, comprising: coating titanium on a surface of polyether ether ketone "PEEK" via magnetron sputtering; polishing the surface of the titanium coated on the surface of PEEK via an electromagnetic polishing apparatus ; and forming a thin-film with titanium dioxide "TiO 2 " having a microporous structure on the polished surface of the titanium via an anodic oxidation treatment, wherein the electromagnetic polishing apparatus comprises: a magnetic field generator having a permanent magnet generating an N pole magnetic field and a permanent generating an S pole magnetic field; a magnetic field converter rotating the magnetic field generator, to convert the positions of the N pole magnetic field and the S pole magnetic field repeatedly by a relatively short period; a polishing receiver configured into which the PEEK having the surface coated with titanium and a polishing material having magnetism are provided, into which the magnetic field generated by the magnetic field generator is supplied; and a receiving plate disposed over the magnetic field converter and receiving the polishing receiver. coating titanium on a surface of polyether ether ketone "PEEK" via magnetron sputtering; polishing the surface of the titanium coated on the surface of PEEK via an electromagnetic polishing apparatus ; and forming a thin-film with titanium dioxide "TiO 2 " having a microporous structure on the polished surface of the titanium via an anodic oxidation treatment, wherein the electromagnetic polishing apparatus comprises: a magnetic field generator having a permanent magnet generating an N pole magnetic field and a permanent generating an S pole magnetic field; a magnetic field converter rotating the magnetic field generator, to convert the positions of the N pole magnetic field and the S pole magnetic field repeatedly by a relatively short period; a polishing receiver configured into which the PEEK having the surface coated with titanium and a polishing material having magnetism are provided, into which the magnetic field generated by the magnetic field generator is supplied; and a receiving plate disposed over the magnetic field converter and receiving the polishing receiver. a magnetic field generator having a permanent magnet generating an N pole magnetic field and a permanent generating an S pole magnetic field; a magnetic field converter rotating the magnetic field generator, to convert the positions of the N pole magnetic field and the S pole magnetic field repeatedly by a relatively short period; a polishing receiver configured into which the PEEK having the surface coated with titanium and a polishing material having magnetism are provided, into which the magnetic field generated by the magnetic field generator is supplied; and a receiving plate disposed over the magnetic field converter and receiving the polishing receiver.
An induction heating extension cable , comprising: - a first plurality of conductors in a Litz cable arrangement which are configured to conduct induction heating current; - an outer protective layer configured to protect the first plurality of conductors from physical damage; - a second plurality of conductors that are electrically isolated from the first plurality of conductors and which are configured to conduct at least one of power or data between an induction heating accessory and an induction heating power supply , - a coupler configured to couple the first plurality of conductors to an induction heating cable, characterized in that the coupler is configured to couple the second plurality of conductors to the induction heating accessory, and that the second plurality of conductors are protected by the outer protective layer from physical damage, wherein the induction heating extension cable further comprises a coupler configured to couple the first plurality of conductors to power connectors of the induction heating power supply and to couple the second plurality of conductors to a communication connector of the induction heating power supply , and wherein the induction heating extension cable comprises an internal wrap which is disposed inside of the outer protective layer and enclosing the first and second plurality of conductor using a polytetrafluoroethylene tape. - a first plurality of conductors in a Litz cable arrangement which are configured to conduct induction heating current; - an outer protective layer configured to protect the first plurality of conductors from physical damage; - a second plurality of conductors that are electrically isolated from the first plurality of conductors and which are configured to conduct at least one of power or data between an induction heating accessory and an induction heating power supply , - a coupler configured to couple the first plurality of conductors to an induction heating cable, the coupler is configured to couple the second plurality of conductors to the induction heating accessory, and that the second plurality of conductors are protected by the outer protective layer from physical damage, wherein the induction heating extension cable further comprises a coupler configured to couple the first plurality of conductors to power connectors of the induction heating power supply and to couple the second plurality of conductors to a communication connector of the induction heating power supply , and wherein the induction heating extension cable comprises an internal wrap which is disposed inside of the outer protective layer and enclosing the first and second plurality of conductor using a polytetrafluoroethylene tape.
A method of supplying energy from an energy storage device to a load, comprising: providing a circuit including a first energy storage device (C1) charged to a first voltage level, the first energy storage device (C1) including first and second electrodes with a dielectric film positioned there between, the dielectric film comprising an entropic material, and the first electrode charged positively or negatively with respect to the second electrode; and applying a reversed polarization electric potential to the first electrode of the first energy storage device (C1) in a first mode of operation of the circuit for a discharge period of time, wherein the reversed polarization electric potential is less than the first voltage level and less than a voltage that would be generated by the first energy storage device in a high impedance state, thereby supplying power from the first energy storage device to a load (R1) connected to the second electrode of the first energy storage device (C1), wherein the first electrode is charged positively or alternatively negatively with respect to the second electrode, and wherein applying the reversed polarization electric potential to the first electrode comprises applying a negative or alternatively positive voltage to the first electrode. providing a circuit including a first energy storage device (C1) charged to a first voltage level, the first energy storage device (C1) including first and second electrodes with a dielectric film positioned there between, the dielectric film comprising an entropic material, and the first electrode charged positively or negatively with respect to the second electrode; and applying a reversed polarization electric potential to the first electrode of the first energy storage device (C1) in a first mode of operation of the circuit for a discharge period of time, wherein the reversed polarization electric potential is less than the first voltage level and less than a voltage that would be generated by the first energy storage device in a high impedance state, thereby supplying power from the first energy storage device to a load (R1) connected to the second electrode of the first energy storage device (C1), wherein the first electrode is charged positively or alternatively negatively with respect to the second electrode, and wherein applying the reversed polarization electric potential to the first electrode comprises applying a negative or alternatively positive voltage to the first electrode.
A method of separating ions in time, comprising the steps of: separating a bulk of ions in time as a function of a first molecular characteristic; sequentially separating in time as a function of ion mobility at least some of said ions previously separated in time as said function of a first molecular characteristic; and characterised by sequentially separating in time as a function of ion mass using a time-of -flight mass spectrometer at least some of said ions previously separated in time as said function of ion mobility, separating a bulk of ions in time as a function of a first molecular characteristic; sequentially separating in time as a function of ion mobility at least some of said ions previously separated in time as said function of a first molecular characteristic; and characterised by sequentially separating in time as a function of ion mass using a time-of -flight mass spectrometer at least some of said ions previously separated in time as said function of ion mobility,
A compressor housing assembly comprising: a shell that comprises a cylindrical wall portion including a fluid inlet opening at one end and a sloped mating surface at an opposing end and, extending radially outwardly from the cylindrical wall portion, a spiral wall portion that defines, in part, a volute ; and an insert that comprises a cylindrical wall portion including a fluid inlet opening at one end and a shroud surface at an opposing end and, extending radially outwardly from the cylindrical wall portion, an annular ring portion including a sloped mating surface and, extending from the shroud surface, a diffuser surface , wherein the insert comprises a longitudinal axis and rotational symmetry about the longitudinal axis, wherein, in an assembled state, the sloped mating surface of the insert and the sloped mating surface of the shell form a sloped interface between the insert and the shell. a shell that comprises a cylindrical wall portion including a fluid inlet opening at one end and a sloped mating surface at an opposing end and, extending radially outwardly from the cylindrical wall portion, a spiral wall portion that defines, in part, a volute ; and an insert that comprises a cylindrical wall portion including a fluid inlet opening at one end and a shroud surface at an opposing end and, extending radially outwardly from the cylindrical wall portion, an annular ring portion including a sloped mating surface and, extending from the shroud surface, a diffuser surface , wherein the insert comprises a longitudinal axis and rotational symmetry about the longitudinal axis, wherein, in an assembled state, the sloped mating surface of the insert and the sloped mating surface of the shell form a sloped interface between the insert and the shell.