mhurhangee/patent-ind-claim-en huggingface dataset:
A guide extension catheter for use with a guide catheter , comprising: an elongate tube member defining a lumen and having an outer diameter smaller than a lumen of the guide catheter ; and a push member eccentrically coupled to the tube member and extending proximally therefrom for slidably positioning the tube member within and partially beyond a distal end of the guide catheter , at least a proximal end portion of the push member including a cross-section defined by an arcuate first surface , which is configured to engage an inner wall surface of the guide catheter along an arc length (l 1 ) defined by a guide catheter central angle (α) of least 20 degrees, and a second surface , which is located opposite the first surface and is substantially flat, and having a center point (C 2 ) at least 0.254 mm from a center point (C 1 ) of the first surface , wherein the first surface of the push member's proximal end portion has the same radius of curvature (r 1 ) as the guide catheter's inner wall surface . an elongate tube member defining a lumen and having an outer diameter smaller than a lumen of the guide catheter ; and a push member eccentrically coupled to the tube member and extending proximally therefrom for slidably positioning the tube member within and partially beyond a distal end of the guide catheter , at least a proximal end portion of the push member including a cross-section defined by an arcuate first surface , which is configured to engage an inner wall surface of the guide catheter along an arc length (l 1 ) defined by a guide catheter central angle (α) of least 20 degrees, and a second surface , which is located opposite the first surface and is substantially flat, and having a center point (C 2 ) at least 0.254 mm from a center point (C 1 ) of the first surface , wherein the first surface of the push member's proximal end portion has the same radius of curvature (r 1 ) as the guide catheter's inner wall surface .
A method for determining a desired speed of a vehicle , preferably an autonomous vehicle, said vehicle comprising a shock absorber arrangement , preferably a hydraulic shock absorber arrangement, having an elastic hysteresis, the method comprises - obtaining a reference value indicative of the energy dissipated by the shock absorber arrangement in a reference driving condition of a vehicle and - determining a speed of the vehicle for which a value indicative of the energy dissipated by the shock absorber arrangement in a similar driving condition is expected to fall within a predetermined energy dissipation range, using said reference value, characterized in that obtaining the reference value indicative of the energy dissipated by the shock absorber arrangement comprises, under a load cycle, - determining a first set of accelerations or loads for one or more displacements of the shock absorber arrangement when the shock absorber arrangement is compressed; - determining a second set of accelerations or loads for the one or more displacements of the shock absorber arrangement when the shock absorber arrangement is expanded; and - determining the value indicative of the energy dissipated by the shock absorber arrangement using a difference between the second set of accelerations or loads for the one or more displacements and the first set of accelerations or loads for the one or more displacements. - obtaining a reference value indicative of the energy dissipated by the shock absorber arrangement in a reference driving condition of a vehicle and - determining a speed of the vehicle for which a value indicative of the energy dissipated by the shock absorber arrangement in a similar driving condition is expected to fall within a predetermined energy dissipation range, using said reference value, characterized in that obtaining the reference value indicative of the energy dissipated by the shock absorber arrangement comprises, under a load cycle, - determining a first set of accelerations or loads for one or more displacements of the shock absorber arrangement when the shock absorber arrangement is compressed; - determining a second set of accelerations or loads for the one or more displacements of the shock absorber arrangement when the shock absorber arrangement is expanded; and - determining the value indicative of the energy dissipated by the shock absorber arrangement using a difference between the second set of accelerations or loads for the one or more displacements and the first set of accelerations or loads for the one or more displacements.
An ROV propeller tailhood, comprising a body , and further comprising a control circuit board , a heat sink , a cooling silica gel and a long rod screw , characterized in that the heat sink is fixed to the bottom of the control circuit board through a plurality of motor driver modules and disposed between the control circuit board and the body ; the heat sink and the body are provided respectively with apertures matching with the long rod screw , and the long rod screw is used to fix the heat sink onto the body ; the cooling silica gel is provided between the control circuit board and the heat sink .
A method of manufacturing an aerosol generating pod , the method comprising: (i) providing aerosol generating material ; characterized by : (ii) positioning sheet material over opposite sides of the aerosol generating material ; (iii) punching the aerosol generating material and the sheet material from one of the opposite sides to form an aerosol generating pod comprising aerosol generating material covered by the sheet material . (i) providing aerosol generating material ; characterized by : (ii) positioning sheet material over opposite sides of the aerosol generating material ; (iii) punching the aerosol generating material and the sheet material from one of the opposite sides to form an aerosol generating pod comprising aerosol generating material covered by the sheet material .
An organic light-emitting device comprising: a first electrode; a second electrode; and an organic layer between the first electrode and the second electrode; the organic layer comprises an emission layer; the emission layer comprises a host, a cooling dopant, and a sensitizer, wherein the cooling dopant and the sensitizer satisfy Conditions 1, 2 and 3, and the sensitizer comprises platinum (Pt): T decay CD < T decay S T decay CD < 1.5 μs T decay CD / T decay S < 0.5 wherein, in Conditions 1, 2 and 3, T decay (CD) is a decay time of the cooling dopant, and T decay (S) is a decay time of the sensitizer; wherein the decay time of the cooling dopant is calculated from a time-resolved photoluminescence spectrum at room temperature with respect to a 40 nm-thickness film obtained by vacuum-codepositing the host and the dopant comprised in the emission layer at the weight ratio of 90:10 on a quartz substrate at the vacuum degree of 10 -7 torr, and the decay time of the sensitizer is calculated from time-resolved photoluminescence spectrum at room temperature with respect to a 40 nm-thickness film obtained by vacuum-codepositing the host and the sensitizer comprised in the emission layer at the weight ratio of 90:10 on a quartz substrate at the vacuum degree of 10 -7 torr. a first electrode; a second electrode; and an organic layer between the first electrode and the second electrode; the organic layer comprises an emission layer; the emission layer comprises a host, a cooling dopant, and a sensitizer, wherein the cooling dopant and the sensitizer satisfy Conditions 1, 2 and 3, and the sensitizer comprises platinum (Pt): T decay CD < T decay S T decay CD < 1.5 μs T decay CD / T decay S < 0.5 wherein, in Conditions 1, 2 and 3, T decay (CD) is a decay time of the cooling dopant, and T decay (S) is a decay time of the sensitizer; wherein the decay time of the cooling dopant is calculated from a time-resolved photoluminescence spectrum at room temperature with respect to a 40 nm-thickness film obtained by vacuum-codepositing the host and the dopant comprised in the emission layer at the weight ratio of 90:10 on a quartz substrate at the vacuum degree of 10 -7 torr, and the decay time of the sensitizer is calculated from time-resolved photoluminescence spectrum at room temperature with respect to a 40 nm-thickness film obtained by vacuum-codepositing the host and the sensitizer comprised in the emission layer at the weight ratio of 90:10 on a quartz substrate at the vacuum degree of 10 -7 torr.
An optical cross apparatus, comprising: a single-row fiber array and a single-row input multidimensional output optical waveguide element , wherein the single-row fiber array is coupled to the single-row input multidimensional output optical waveguide element, and an arbitrarily curved spatial three-dimensional waveguide is provided inside the single-row input multidimensional output optical waveguide element, wherein a coupling surface of the single-row fiber array is the same as that of the single-row input multidimensional output optical waveguide element; wherein a microlens is formed on a surface of each light outlet of the single-row input multidimensional output optical waveguide element by femtosecond laser processing such that there is no gap between the light outlet of the single-row input multidimensional output optical waveguide element and the microlens, and the microlens is configured to perform beam shaping. a single-row fiber array and a single-row input multidimensional output optical waveguide element , wherein the single-row fiber array is coupled to the single-row input multidimensional output optical waveguide element, and an arbitrarily curved spatial three-dimensional waveguide is provided inside the single-row input multidimensional output optical waveguide element, wherein a coupling surface of the single-row fiber array is the same as that of the single-row input multidimensional output optical waveguide element; wherein a microlens is formed on a surface of each light outlet of the single-row input multidimensional output optical waveguide element by femtosecond laser processing such that there is no gap between the light outlet of the single-row input multidimensional output optical waveguide element and the microlens, and the microlens is configured to perform beam shaping.
A catheter for debulking of an undesired deposit from an inner surface of at least one of a blood vessel wall, a stent located in a blood vessel, and a body cavity, said catheter comprises: a tip section comprising a wall at an end of said tip section, the wall having a circular cross-section, the tip section having a central longitudinal axis, the tip section comprising: circumferentially directed laser optics comprising a plurality of optical fibers disposed along a surface of said wall and positioned parallel to said central longitudinal axis and configured to provide transmission of laser radiation, parallel to said central longitudinal axis from a distal end of said tip section to an undesired deposit , when in use; and a cutter , wherein said cutter is formed from a distal edge of said wall of said tip section or affixed to said distal end of said wall of said tip section inwardly or outwardly to the plurality of optical fibers and wherein said cutter is positioned outside an optical path of said laser radiation; wherein the circumferentially directed laser optics are configured to transmit laser radiation for modifying an area of the undesired deposit thereby preparing said area for penetration of said cutter ; and wherein said cutter is configured to cut through said modified area and thereby debulk at least a part of the undesired deposit . circumferentially directed laser optics comprising a plurality of optical fibers disposed along a surface of said wall and positioned parallel to said central longitudinal axis and configured to provide transmission of laser radiation, parallel to said central longitudinal axis from a distal end of said tip section to an undesired deposit , when in use; and a cutter , wherein said cutter is formed from a distal edge of said wall of said tip section or affixed to said distal end of said wall of said tip section inwardly or outwardly to the plurality of optical fibers and wherein said cutter is positioned outside an optical path of said laser radiation; wherein the circumferentially directed laser optics are configured to transmit laser radiation for modifying an area of the undesired deposit thereby preparing said area for penetration of said cutter ; and wherein said cutter is configured to cut through said modified area and thereby debulk at least a part of the undesired deposit .
A power tool , comprising a power tool body ; wherein the power tool body is configured to be adapted to a first battery pack having a first nominal voltage and a first output terminal set and a second battery pack having a second nominal voltage and a second output terminal set different from the first output terminal set , wherein the first nominal voltage is different from the second nominal voltage; and the power tool body comprises a first input terminal set configured to be selectively electrically connected to one of the first output terminal set and the second output terminal set to supply power to the power tool body . wherein the power tool body is configured to be adapted to a first battery pack having a first nominal voltage and a first output terminal set and a second battery pack having a second nominal voltage and a second output terminal set different from the first output terminal set , wherein the first nominal voltage is different from the second nominal voltage; and the power tool body comprises a first input terminal set configured to be selectively electrically connected to one of the first output terminal set and the second output terminal set to supply power to the power tool body .
An optical system , configured to direct a light beam emitted from each of a plurality of light emitting parts (ep) arranged to be aligned along a first direction (d1) to a single optical fiber , comprising an optical element having an emission surface (es) that is located closest to the optical fiber and that refracts the light beam emitted from each of the plurality of light emitting parts (ep) into a different orientation in a second direction (d2) that is orthogonal to the first direction (d1), and an incident surface (is) that is located closest to the plurality of light emitting parts (ep), characterized in that the emission surface (es) includes a lens array including a plurality of lens elements arranged to be aligned along the first direction (d1) at the same position in the second direction (d2) so that the respective light beams emitted from the plurality of light emitting parts (ep) have different light collection centers (cc) which are offset from each other at least in the second direction (d2), the emission surface (es) includes a toroidal surface portion having an arcuate section orthogonal to the first direction (d1), and the incident surface (is) includes a toroidal surface portion having an arcuate section orthogonal to the first direction (d1).
A non-addictive anesthetic analgesic sustained-release drug delivery system consisting of an anesthetic analgesic, a drug menstruum, and a drug sustained-release agent; characterized in that the sustained-release drug delivery system is an oily solution having good homogeneity; and the anesthetic analgesic comprises a local anesthetic, a nonsteroidal anti-inflammatory analgesic and an opioid analgesic at non-addictive medium or low dose; wherein the local anesthetic comprises a free base of procaine, lidocaine, bupivacaine, levobupivacaine, ropivacaine, tetracaine, dibucaine or etidocaine or salts thereof; the nonsteroidal anti-inflammatory analgesic comprises aspirin, diclofenac sodium, ibuprofen, naproxen, nabumetone, sulindac, mefenamic acid, clofenamic acid, diclofenac, flufenamic acid, piroxicam, meloxicam, aminopyrine, analgin, phenacetin, paracetamol, parecoxib, rofecoxib, valdecoxib, or nimesulide; and the opioid analgesic comprises dihydromorphinone, dezocine, naloxone, naltrexone, morphine, fentanyl, sufentanil, codeine, pethidine, pentazocine, methadone, etorphine, bucinnazine, buprenorphine, tramadol, alfentanil, or remifentanil; the drug menstruum comprises one or a mixture of two or more of benzyl alcohol, ethanol, glycerol monoacetate, ethyl lactate, tetrahydrofurfuryl polyethylene glycol ether, and benzyl benzoate; and the drug sustained-release agent comprises a natural vegetable oil, an artificially modified semi-natural fat from natural vegetable oil, purified fat, artificially synthesized fat, animal fat having a low melting point, or a mixture of two or more of natural vegetable oil, artificially modified semi-natural fat from natural vegetable oil, purified fat, artificially synthesized fat and animal fat having a low melting point.
A method for offering short message service, SMS, by a mobility management entity, MME, in a wireless communication system, the method comprising: receiving (S401), from a terminal, information indicating that the terminal requests SMS; determining whether the MME supports an SMS delivery over a packet switched, PS, network; transmitting (S409), to a home subscriber server, HSS, a location update request message including an address on the MME for SMS routing, in case that the MME supports the SMS delivery over the PS network; and transmitting (S411), to the terminal, a location area identification, LAI, and a temporary mobile subscriber identity, TMSI, wherein, in case that the MME does not support the SMS delivery over the PS network, a location update procedure with at least one of a visitor location register, VLR, or a mobile switching center, MSC, is performed. receiving (S401), from a terminal, information indicating that the terminal requests SMS; determining whether the MME supports an SMS delivery over a packet switched, PS, network; transmitting (S409), to a home subscriber server, HSS, a location update request message including an address on the MME for SMS routing, in case that the MME supports the SMS delivery over the PS network; and transmitting (S411), to the terminal, a location area identification, LAI, and a temporary mobile subscriber identity, TMSI, wherein, in case that the MME does not support the SMS delivery over the PS network, a location update procedure with at least one of a visitor location register, VLR, or a mobile switching center, MSC, is performed.
Device for measuring a transition rate between a first phase of a material and a second phase of the material, wherein the material is solid or liquid in the first phase and gaseous in the second phase , comprising: a porous substrate plate for artificially creating the first phase , wherein the porous substrate plate comprises a lower side and an upper side ; and a thermopile installed at the porous substrate plate and with a plurality of conductor transitions , wherein the thermopile has a first portion , which comprises every second one of the conductor transitions , and a second portion , which comprises the remaining conductor transitions , and is designed to output a measurable thermoelectric voltage that represents a temperature difference between the first and the second portion of the thermopile , wherein either the thermopile is located completely on the lower side or on the upper side of the substrate plate and the first portion of the thermopile is closer to the respective side of the substrate plate than the second portion of the thermopile , or the first portion and the second portion of the thermopile are located in a common plane that is parallel to the lower side and/or the upper side of the substrate plate and a cover is provided that covers the porous substrate plate at the first portion of the thermopile but not at the second portion of the thermopile . a porous substrate plate for artificially creating the first phase , wherein the porous substrate plate comprises a lower side and an upper side ; and a thermopile installed at the porous substrate plate and with a plurality of conductor transitions , wherein the thermopile has a first portion , which comprises every second one of the conductor transitions , and a second portion , which comprises the remaining conductor transitions , and is designed to output a measurable thermoelectric voltage that represents a temperature difference between the first and the second portion of the thermopile , wherein either the thermopile is located completely on the lower side or on the upper side of the substrate plate and the first portion of the thermopile is closer to the respective side of the substrate plate than the second portion of the thermopile , or the first portion and the second portion of the thermopile are located in a common plane that is parallel to the lower side and/or the upper side of the substrate plate and a cover is provided that covers the porous substrate plate at the first portion of the thermopile but not at the second portion of the thermopile .
A sealing boot assembly for protecting an electrical interconnection, comprising: a main body having a cavity configured to house an interconnection of two electrical connectors; and a neck merging with one end of the main body and having a cylindrical inner surface that defines a bore that is continuous with the cavity of the main body, the inner surface having an inner diameter that is less than an inner diameter of the cavity of the main body; a cable terminated with a connector that resides in the cavity, wherein the neck of the sealing boot grips the cable , characterised in that the inner surface of the neck includes a helical projection comprising a main artery and two tributaries , the tributaries each intersecting a section of the main artery at one end and merging with an end of the main artery at an opposite end; and the cable includes a helically corrugated outer conductor, the helix of the outer conductor defining a first rotative direction, and wherein the helical projection of the neck defines a second, opposite rotative direction; and wherein the cable has an overlying jacket with shallow ridges and valleys formed by the crests and roots of the corrugations, and wherein the interaction between the helical ridges and valleys and the projections and recesses in the sealing boot results in no voids therein. a main body having a cavity configured to house an interconnection of two electrical connectors; and a neck merging with one end of the main body and having a cylindrical inner surface that defines a bore that is continuous with the cavity of the main body, the inner surface having an inner diameter that is less than an inner diameter of the cavity of the main body; a cable terminated with a connector that resides in the cavity, wherein the neck of the sealing boot grips the cable , characterised in that the inner surface of the neck includes a helical projection comprising a main artery and two tributaries , the tributaries each intersecting a section of the main artery at one end and merging with an end of the main artery at an opposite end; and the cable includes a helically corrugated outer conductor, the helix of the outer conductor defining a first rotative direction, and wherein the helical projection of the neck defines a second, opposite rotative direction; and wherein the cable has an overlying jacket with shallow ridges and valleys formed by the crests and roots of the corrugations, and wherein the interaction between the helical ridges and valleys and the projections and recesses in the sealing boot results in no voids therein.