mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical accessory comprising: A tubular cutting element including a drive shaft with a distal end; and a cutting head mounted on the distal end, the cutting head comprising: a pair of first tissue-treating areas each including an abrading region with a plurality of cutting surfaces with respective abraded region cutting edges and a plurality of flutes oriented in an alternating manner with one another along a circumference of the cutting head; and a pair of second tissue-treating areas each including a window formed as an elongated opening in the cutting head and having opposite longitudinal sides defining first and second cutting edges located in substantially opposed and facing relation with one another, the window being in operative communication with an interior of the cutting head, wherein the first tissue-treating areas and the second tissue-treating areas are arranged in an alternating manner with one another along the periphery of the cutting head. A tubular cutting element including a drive shaft with a distal end; and a cutting head mounted on the distal end, the cutting head comprising: a pair of first tissue-treating areas each including an abrading region with a plurality of cutting surfaces with respective abraded region cutting edges and a plurality of flutes oriented in an alternating manner with one another along a circumference of the cutting head; and a pair of second tissue-treating areas each including a window formed as an elongated opening in the cutting head and having opposite longitudinal sides defining first and second cutting edges located in substantially opposed and facing relation with one another, the window being in operative communication with an interior of the cutting head, wherein the first tissue-treating areas and the second tissue-treating areas are arranged in an alternating manner with one another along the periphery of the cutting head. a pair of first tissue-treating areas each including an abrading region with a plurality of cutting surfaces with respective abraded region cutting edges and a plurality of flutes oriented in an alternating manner with one another along a circumference of the cutting head; and a pair of second tissue-treating areas each including a window formed as an elongated opening in the cutting head and having opposite longitudinal sides defining first and second cutting edges located in substantially opposed and facing relation with one another, the window being in operative communication with an interior of the cutting head, wherein the first tissue-treating areas and the second tissue-treating areas are arranged in an alternating manner with one another along the periphery of the cutting head.
A gas barrier laminate comprising: a base layer; a gas barrier layer laminated on one surface (A) of the base layer, directly or with another layer sandwiched therebetween; a protective film (α) laminated directly on the gas barrier layer; and a protective film (β) laminated on a surface (B) opposite to the surface (A) of the base layer, directly or with another layer sandwiched therebetween, wherein the protective film (β) is a laminated film having a support (β1) and an adhesive layer (β2), and the adhesive layer (β2) contains an acrylic polymer having a repeating unit derived from 2-ethylhexyl (meth)acrylate, an adhesion at the time of peeling the protective film (α) at a peel rate of 10 m/minute and a peel angle of 180° in accordance with JIS Z0237: 2000 is 0.1 N/50 mm or less, and an adhesion at the time of peeling the protective film (β) at a peel rate of 10 m/minute and a peel angle of 180° in accordance with JIS Z0237: 2000 is 1.5 N/50 mm or less. a base layer; a gas barrier layer laminated on one surface (A) of the base layer, directly or with another layer sandwiched therebetween; a protective film (α) laminated directly on the gas barrier layer; and a protective film (β) laminated on a surface (B) opposite to the surface (A) of the base layer, directly or with another layer sandwiched therebetween, wherein the protective film (β) is a laminated film having a support (β1) and an adhesive layer (β2), and the adhesive layer (β2) contains an acrylic polymer having a repeating unit derived from 2-ethylhexyl (meth)acrylate, an adhesion at the time of peeling the protective film (α) at a peel rate of 10 m/minute and a peel angle of 180° in accordance with JIS Z0237: 2000 is 0.1 N/50 mm or less, and an adhesion at the time of peeling the protective film (β) at a peel rate of 10 m/minute and a peel angle of 180° in accordance with JIS Z0237: 2000 is 1.5 N/50 mm or less.
A positive electrode material comprising: a first positive electrode active material represented by Formula 1; and a second positive electrode active material represented by Formula 2, wherein the second positive electrode active material has been composited by using a solid-phase method during its preparation and has an electrical conductivity of 0.1 μS/cm to 150 μS/cm, which is measured after the second positive electrode active material is prepared in a form of a pellet by compressing the second positive electrode active material at a rolling load of 3.923 N (400 kgf) to 19.613 N (2,000 kgf) and introducing the second positive electrode material into an electrical conductivity measuring device, wherein the first positive electrode active material and the second positive electrode active material are included in a weight ratio of 40:60 to 90:10, and wherein the second positive electrode active material has a grain size of 200 nm to 500 nm as measured by X-ray diffraction: [Formula 1] LiCo 1-a M 1 a O 2 [Formula 2] LiNi b Co c Mn d M 2 e O 2 wherein, in Formula 1, M 1 comprises at least one selected from the group consisting of aluminum (Al), titanium (Ti), magnesium (Mg), and zirconium (Zr), and 0≤a≤0.2, and wherein, in Formula 2, M 2 comprises at least one selected from the group consisting of Al, Ti, Mg, Zr, yttrium (Y), strontium (Sr), and boron (B), and 0<b≤0.6, 0<c≤0.35, 0<d≤0.35, and 0<e≤0.1. a first positive electrode active material represented by Formula 1; and a second positive electrode active material represented by Formula 2, wherein the second positive electrode active material has been composited by using a solid-phase method during its preparation and has an electrical conductivity of 0.1 μS/cm to 150 μS/cm, which is measured after the second positive electrode active material is prepared in a form of a pellet by compressing the second positive electrode active material at a rolling load of 3.923 N (400 kgf) to 19.613 N (2,000 kgf) and introducing the second positive electrode material into an electrical conductivity measuring device, wherein the first positive electrode active material and the second positive electrode active material are included in a weight ratio of 40:60 to 90:10, and wherein the second positive electrode active material has a grain size of 200 nm to 500 nm as measured by X-ray diffraction: [Formula 1] LiCo 1-a M 1 a O 2 [Formula 2] LiNi b Co c Mn d M 2 e O 2 wherein, in Formula 1, M 1 comprises at least one selected from the group consisting of aluminum (Al), titanium (Ti), magnesium (Mg), and zirconium (Zr), and 0≤a≤0.2, and wherein, in Formula 2, M 2 comprises at least one selected from the group consisting of Al, Ti, Mg, Zr, yttrium (Y), strontium (Sr), and boron (B), and 0<b≤0.6, 0<c≤0.35, 0<d≤0.35, and 0<e≤0.1.
Electromagnet structure of an electric machine, in particular an adjustment drive of a motor vehicle, said electromagnet structure having a number of coils that are arranged in a circular structure , said coils comprising in each case a coil winding and a connector , - wherein the coils in each case are electrically connected in pairs by means of a conductor bridge , said conductor bridge being contacted by means of the respective connectors , - wherein each conductor bridge is spaced in the axial direction (A) from the allocated coil windings , - wherein each conductor bridge is arranged at least in part in a receiving arrangement of a guiding plate (18, 18', 18"), - wherein the receiving arrangements are arranged axially and spaced tangentially with respect to one another, - wherein the guiding plate (18, 18', 18") comprises a number of retaining arms that corresponds to the number of receiving arrangements , said retaining arms in each case having a retaining element , - and wherein one of the conductor bridges is fixed by means of each retaining element . - wherein the coils in each case are electrically connected in pairs by means of a conductor bridge , said conductor bridge being contacted by means of the respective connectors , - wherein each conductor bridge is spaced in the axial direction (A) from the allocated coil windings , - wherein each conductor bridge is arranged at least in part in a receiving arrangement of a guiding plate (18, 18', 18"), - wherein the receiving arrangements are arranged axially and spaced tangentially with respect to one another, - wherein the guiding plate (18, 18', 18") comprises a number of retaining arms that corresponds to the number of receiving arrangements , said retaining arms in each case having a retaining element , - and wherein one of the conductor bridges is fixed by means of each retaining element .
An inter-eNodeB communication method, comprising: detecting an inter-eNodeB interface transmission condition (S102); determining a cooperation mode of inter-eNodeB communication according to the detected inter-eNodeB interface transmission condition (S104), wherein the cooperation mode of the inter-eNodeB communication comprises at least one of followings: a cooperation mode of a physical layer, a cooperation mode of a Media Access Control, MAC, layer, and a cooperation mode based on a Radio Resource Management, RRM, function; and wherein determining the cooperation mode of the inter-eNodeB communication according to the detected inter-eNodeB interface transmission condition (S104) comprises: applying the cooperation mode of the physical layer when the inter-eNodeB interface transmission condition satisfies a requirement of the cooperation mode of the physical layer, and applying the cooperation mode of the MAC layer when the inter-eNodeB interface transmission condition fails to satisfy the requirement of the cooperation mode of the physical layer, but satisfies a requirement of the cooperation mode of the MAC layer, and applying the cooperation mode based on the RRM function when the inter-eNodeB interface transmission condition fails to satisfy the requirement of the cooperation mode of the MAC layer, but satisfies a requirement of the cooperation mode based on the RRM function; and performing the inter-eNodeB communication according to the determined cooperation mode . detecting an inter-eNodeB interface transmission condition (S102); determining a cooperation mode of inter-eNodeB communication according to the detected inter-eNodeB interface transmission condition (S104), wherein the cooperation mode of the inter-eNodeB communication comprises at least one of followings: a cooperation mode of a physical layer, a cooperation mode of a Media Access Control, MAC, layer, and a cooperation mode based on a Radio Resource Management, RRM, function; and wherein determining the cooperation mode of the inter-eNodeB communication according to the detected inter-eNodeB interface transmission condition (S104) comprises: applying the cooperation mode of the physical layer when the inter-eNodeB interface transmission condition satisfies a requirement of the cooperation mode of the physical layer, and applying the cooperation mode of the MAC layer when the inter-eNodeB interface transmission condition fails to satisfy the requirement of the cooperation mode of the physical layer, but satisfies a requirement of the cooperation mode of the MAC layer, and applying the cooperation mode based on the RRM function when the inter-eNodeB interface transmission condition fails to satisfy the requirement of the cooperation mode of the MAC layer, but satisfies a requirement of the cooperation mode based on the RRM function; and performing the inter-eNodeB communication according to the determined cooperation mode .
A laser device comprising: a laser light source configured to emit laser light; characterized by a phase control unit configured to receive the laser light emitted from the laser light source , to control a spatial phase of a portion of the laser light (L1), to emit the portion of the light as control light (L2), and to emit another portion of the laser light as non-control light (L3); a first optical system configured to irradiate an object with the control light (L2) emitted from the phase control unit ; a detector configured to detect the non-control light (L3) emitted from the phase control unit ; a second optical system configured to cause the non-control light (L3) emitted from the phase control unit to converge toward a detection surface of the detector ; and a control unit configured to execute a correction process for controlling the phase control unit to correct a control state for a spatial phase of the control light (L2) in the phase control unit on the basis of a detection result for the non-control light (L3) from the detector . a laser light source configured to emit laser light; characterized by a phase control unit configured to receive the laser light emitted from the laser light source , to control a spatial phase of a portion of the laser light (L1), to emit the portion of the light as control light (L2), and to emit another portion of the laser light as non-control light (L3); a first optical system configured to irradiate an object with the control light (L2) emitted from the phase control unit ; a detector configured to detect the non-control light (L3) emitted from the phase control unit ; a second optical system configured to cause the non-control light (L3) emitted from the phase control unit to converge toward a detection surface of the detector ; and a control unit configured to execute a correction process for controlling the phase control unit to correct a control state for a spatial phase of the control light (L2) in the phase control unit on the basis of a detection result for the non-control light (L3) from the detector .
Particles containing no more than 10% by weight of liquid, which particles comprise: a) epinephrine, or a salt thereof; and b) at least one pharmaceutically acceptable excipient for use in treating a patient in need of epinephrine, wherein said particles are to be administered in a single, breath activated step from a dry powder inhaler to the respiratory system of a patient as particles comprising at least 50 micrograms of epinephrine, having a tap density of less than 0.4 g/cm 3 , and possessing a fine particle fraction of less than 5.6 microns of at least 45 percent. a) epinephrine, or a salt thereof; and b) at least one pharmaceutically acceptable excipient
A mechanical oscillator device comprising a thin film on a supporting substrate , with the supporting substrate being shaped to expose an area of the thin film to form an unsupported membrane ; the membrane comprising a multitude of discrete mass elements distributed to form regions of additional mass on the membrane, with each region of additional mass comprising a plurality of discrete mass elements; wherein: - the regions of additional mass form a periodic pattern providing a phononic crystal structure on the membrane; - the phononic crystal structure exhibits a defect for confining a mechanical oscillation mode having a resonance frequency, f, and corresponding wavelength, λ; characterized in that a minimum lateral dimension, d, of the discrete mass elements is less than 1/10 of the wavelength of the mechanical oscillation mode. - the regions of additional mass form a periodic pattern providing a phononic crystal structure on the membrane; - the phononic crystal structure exhibits a defect for confining a mechanical oscillation mode having a resonance frequency, f, and corresponding wavelength, λ; characterized in that a minimum lateral dimension, d, of the discrete mass elements is less than 1/10 of the wavelength of the mechanical oscillation mode.
A conveyor belt with a system for elongation control wherein said conveyor belt comprises a plurality of pitches wherein at least one magnetic element is housed in the belt and inserted between each adjacent pitches in one and the same position, at an identical separation or distance (d) which is equal to the distance between two adjacent pitches of the conveyor belt ; and characterized in that the conveyor belt further comprises: means for detecting an elongation between two pitches of the conveyor belt ; and means configured for varying the magnetic field generated by each of the at least one magnetic element , said magnetic field being generated such that the at least one magnetic elements between adjacent pitches of the conveyor belt are attracted to one another; until the elongation is less than a previously established threshold. means for detecting an elongation between two pitches of the conveyor belt ; and means configured for varying the magnetic field generated by each of the at least one magnetic element , said magnetic field being generated such that the at least one magnetic elements between adjacent pitches of the conveyor belt are attracted to one another; until the elongation is less than a previously established threshold.
A method for operating an aircraft powerplant comprising an engine coupled to a variable-pitch propeller capable of generating forward and reverse thrust, the method comprising: receiving a request to enable a mode for automated reverse thrust; determining that reverse thrust conditions have been met when the aircraft is on-ground, a blade angle of the propeller is below a blade angle threshold and a position of a power lever is at a selected idle region of the power lever ; and triggering reverse thrust of the propeller when the mode for automated reverse thrust is enabled and the reverse thrust conditions have been met. receiving a request to enable a mode for automated reverse thrust; determining that reverse thrust conditions have been met when the aircraft is on-ground, a blade angle of the propeller is below a blade angle threshold and a position of a power lever is at a selected idle region of the power lever ; and triggering reverse thrust of the propeller when the mode for automated reverse thrust is enabled and the reverse thrust conditions have been met.
Use of calcium nitrate as a setting accelerator to hasten heat release during the setting and hardening process in the production of a cementitious composition and/or a cementitious solid at high ambient temperatures in the range of 27 to 45 °C, wherein the cementitious composition and/or the cementitious solid comprises 3 to 5 weight% of calcium nitrate, relative to the weight of the cement.
A nanoparticle comprising a keratin polypeptide and at least one lipophilic active ingredient, wherein said at least one lipophilic active ingredient is non-covalently bound to said keratin polypeptide and said keratin polypeptide is water-soluble.
A protective film for being attached to a resin substrate at the time of performing heat bending on the resin substrate while heating the resin substrate, the protective film comprising: a base material layer; and a pressure sensitive adhesive layer which contains a polyolefin and an elastomer, wherein the pressure sensitive adhesive layer is adapted to be positioned between the base material layer and the resin substrate, wherein the base material layer is formed of a laminate having a first layer which is positioned on the opposite side of the pressure sensitive adhesive layer, contains a thermoplastic resin, and has a melting point of 150°C or higher and a second layer which is positioned on the pressure sensitive adhesive layer side, contains a thermoplastic resin, and has a melting point of lower than 120°C, and wherein the melting point of the second layer is in a range of 90°C to 119°C. a base material layer; and a pressure sensitive adhesive layer which contains a polyolefin and an elastomer, wherein the pressure sensitive adhesive layer is adapted to be positioned between the base material layer and the resin substrate, wherein the base material layer is formed of a laminate having a first layer which is positioned on the opposite side of the pressure sensitive adhesive layer, contains a thermoplastic resin, and has a melting point of 150°C or higher and a second layer which is positioned on the pressure sensitive adhesive layer side, contains a thermoplastic resin, and has a melting point of lower than 120°C, and wherein the melting point of the second layer is in a range of 90°C to 119°C.
A method for wireless communication performed by a first base station of a wireless communication system supporting the first base station and a second base station comprising: detecting , by the first base station operating according to a first time division duplexing, TDD configuration, interference from the second base station the second base station operating according to a second TDD configuration that is synchronized in time with the first TDD configuration; sending an overload indication to the second base station based at least in part on the interference; receiving, from the second base station in response to the overload indication, an indication of remote interference of the second base station to the first base station, sending , to the second base station, a request for transmission of a remote interference reference signal, RI-RS wherein the request for the RI-RS is based at least in part on the indication of remote interference; identifying , an indicator to monitor for the remote interference reference signal, RI-RS scheduled for transmission by the second base station; monitoring for the RI-RS from the second base station during at least a portion of a first uplink transmission time interval, TTI of the first TDD configuration based on the indication; and reporting measurement information associated with resources of the RI-RS based at least in part on the monitoring for the RI-RS. detecting , by the first base station operating according to a first time division duplexing, TDD configuration, interference from the second base station the second base station operating according to a second TDD configuration that is synchronized in time with the first TDD configuration; sending an overload indication to the second base station based at least in part on the interference; receiving, from the second base station in response to the overload indication, an indication of remote interference of the second base station to the first base station, sending , to the second base station, a request for transmission of a remote interference reference signal, RI-RS wherein the request for the RI-RS is based at least in part on the indication of remote interference; identifying , an indicator to monitor for the remote interference reference signal, RI-RS scheduled for transmission by the second base station; monitoring for the RI-RS from the second base station during at least a portion of a first uplink transmission time interval, TTI of the first TDD configuration based on the indication; and reporting measurement information associated with resources of the RI-RS based at least in part on the monitoring for the RI-RS.