mhurhangee/patent-ind-claim-en huggingface dataset:
A permanent, removable and self-sustainable urinary catheter, comprising an urinary catheter having an structure produced in medical grade silicone with three discs, a fixed proximal disc having a central protrusion ; and a distal disc having a central protrusion , said distal disc is configured to be slided and adjusted to the female external meatus or male perineal urethrostomy; whereas on the distal end of the catheter there is a connector with a lid and an opening and closing mechanism; a chuck (M) is provided, which features a rod-shaped portion (M1) dimensioned to be introduced along the tubular body of the catheter ; an enlarged distal portion (M2) matches, when touching the connector end , with its end (M3), reaching the final point of the closed proximal end of the urinary catheter ; and a handle portion (M4), through which the chuck (M) is handled; the tubular body of the catheter including orifices , wherein the tubular body of the urinary catheter includes four orifices and two orifices , the orifices being closest to the proximal disc and positioned diametrically opposed to each other; the tubular body between proximal disc and distal disc is 2.5 cm long, the catheter has 13 and 15Fr gauges for child use, and 17, 19, 21 and 23Fr for adult use; the full length of the catheter is 7cm for the child model; 8cm for adult model and 15cm for patients with special needs; characterised in that the catheter includes a second sliding distal disc .
Guiding device with a running rail and a guide carriage that is displaceable along the running rail and is rotatably connectable to a first separation element , and that comprises a carriage body with a carriage head and a carriage foot that are connected with one another by a carriage beam , whereby the carriage head holds at least one support wheel and at least two guide wheels and the carriage foot is connected torque proof with a first end piece of a hinge lever , whose second end piece is rotatably held by a hinge shaft at the level or below the running rail , which hinge shaft is arranged in a guide hinge , which is attachable laterally at the front side of the first separation element , characterized in that the carriage foot comprises a bolt chamber , that is provided on the upper side with a bearing seat having a front sided recess , with a front sided chamber opening and at the lower side with a chamber base having a receiving opening and that the first end piece of the hinge lever comprises a lever block with a threaded bore provided therein, in which a bolt shaft of a mounting bolt is pivotally held, which mounting bolt is insertable through the chamber opening into the bolt chamber and is held pivotally and adjustable in the bearing seat and is secured against automatic disconnection.
Wiper device designed to equip a receptacle containing a product, notably a cosmetic product, comprising a tubular body attaching into the neck of said receptacle and a wiper member made as one piece with said attaching tubular body, wherein the wiper member comprises at least one helical winding coaxial with an axis of elongation (X-X') of the attaching tubular body and provided with a plurality of successive coils along said axis of elongation, characterized in that said helical winding of the wiper member extends at least in part inside the attaching tubular body .
A glass panel on-production-line stress testing and retrieving system, comprising: an identification code installed on a surface of each of a plurality of glass panels prior to being processed, wherein the identification code is unique to each of the plurality of glass panels ; at least one stress sensor to test a stress at different testing locations on the surface of each of the plurality of glass panels being processed on a production line including a tempering or a semi-tempering step for manufacturing reinforced glass panels, and to obtain the stress information; a sensor controller to place the at least one stress sensor on the different testing locations, wherein the sensor controller moves the at least one stress sensor along a direction parallel to the surface of each of the plurality of glass panels and along a direction vertical to the surface of each of the plurality of glass panels ; and a glass panel production information database to store the stress information based on the identification code , wherein the glass panel production information database provides stress information corresponding to an identification code installed on a surface of one of the plurality of glass panels upon a mobile scanning device reads the identification code and submits a retrieval request. an identification code installed on a surface of each of a plurality of glass panels prior to being processed, wherein the identification code is unique to each of the plurality of glass panels ; at least one stress sensor to test a stress at different testing locations on the surface of each of the plurality of glass panels being processed on a production line including a tempering or a semi-tempering step for manufacturing reinforced glass panels, and to obtain the stress information; a sensor controller to place the at least one stress sensor on the different testing locations, wherein the sensor controller moves the at least one stress sensor along a direction parallel to the surface of each of the plurality of glass panels and along a direction vertical to the surface of each of the plurality of glass panels ; and a glass panel production information database to store the stress information based on the identification code , wherein the glass panel production information database provides stress information corresponding to an identification code installed on a surface of one of the plurality of glass panels upon a mobile scanning device reads the identification code and submits a retrieval request.
An active optical fiber comprising an active core doped with rare-earth elements; an inner cladding over said active core acting as a pump core for said active core ; and an outer cladding further comprising an irregular structure over a section of said fiber having: - the active core provided with a gradually changing diameter forming a tapered longitudinal profile and a constant thickness of the inner cladding along the length of the section of the optical fiber, or - the active core provided with a gradually changing diameter forming a tapered longitudinal profile while the thickness of a portion of said inner cladding forms a tapered longitudinal profile along the length of said section and another portion keeps the thickness of said inner cladding constant. - the active core provided with a gradually changing diameter forming a tapered longitudinal profile and a constant thickness of the inner cladding along the length of the section of the optical fiber, or - the active core provided with a gradually changing diameter forming a tapered longitudinal profile while the thickness of a portion of said inner cladding forms a tapered longitudinal profile along the length of said section and another portion keeps the thickness of said inner cladding constant.
A method for emulating a hypervisor and testing a hypervisor controller using the emulated hypervisor, the method comprising: at a computing platform configured to emulate a hypervisor by responding to hypervisor directed messages: receiving a request message from a hypervisor controller for creating a virtual machine (VM), (206-212) wherein the hypervisor controller is capable of sending one or more hypervisor directed messages for creating or modifying the VM; and in response to receiving the request message, creating an entry in a VM state data structure for representing an emulated VM associated with the emulated hypervisor, wherein the entry includes a VM identifier, a VM operating system identifier, a hypervisor identifier, and state information indicating that the VM has been created and responding to the request message using the state information indicating that the VM has been created, wherein the computing platform uses or modifies the entry in the VM state data structure when responding to a subsequent message directed to the emulated VM; testing the hypervisor controller by indicating a failure associated with the emulated VM; and monitoring the hypervisor controller to determine whether any mitigation actions were taken in response to the failure. receiving a request message from a hypervisor controller for creating a virtual machine (VM), (206-212) wherein the hypervisor controller is capable of sending one or more hypervisor directed messages for creating or modifying the VM; and in response to receiving the request message, creating an entry in a VM state data structure for representing an emulated VM associated with the emulated hypervisor, wherein the entry includes a VM identifier, a VM operating system identifier, a hypervisor identifier, and state information indicating that the VM has been created and responding to the request message using the state information indicating that the VM has been created, wherein the computing platform uses or modifies the entry in the VM state data structure when responding to a subsequent message directed to the emulated VM; testing the hypervisor controller by indicating a failure associated with the emulated VM; and monitoring the hypervisor controller to determine whether any mitigation actions were taken in response to the failure.
A method for cleaning a semiconductor wafer (1010; 17010) comprising features of patterned structures, the method comprising: applying liquid (1032; 17070) on the semiconductor wafer (1010; 17010); controlling, based on a timer, a power supply of a transducer to deliver acoustic energy to the liquid (1032; 17070) at a first frequency and a first power level (P 1 ) for a predetermined first time period; controlling, based on the timer, the power supply of the transducer either to deliver acoustic energy to the liquid (1032; 17070) at a second frequency and a second power level (P 2 ) for a predetermined second time period or not to deliver acoustic energy to the liquid (1032; 17070) in the second time period; wherein the first and second time periods are alternately applied one after another for a predetermined number of cycles, wherein the first and second time periods, the first and second power levels (P 1 , P 2 ), and the first and second frequencies are determined such that no feature is damaged as a result of delivering the acoustic energy, characterized in that the first time period is shorter than the period after which the temperature inside bubble attains an implosion temperature, and the second time period is longer than the period after which the temperature inside bubble falls down to a temperature much lower than the implosion temperature. applying liquid (1032; 17070) on the semiconductor wafer (1010; 17010); controlling, based on a timer, a power supply of a transducer to deliver acoustic energy to the liquid (1032; 17070) at a first frequency and a first power level (P 1 ) for a predetermined first time period; controlling, based on the timer, the power supply of the transducer either to deliver acoustic energy to the liquid (1032; 17070) at a second frequency and a second power level (P 2 ) for a predetermined second time period or not to deliver acoustic energy to the liquid (1032; 17070) in the second time period; wherein the first and second time periods are alternately applied one after another for a predetermined number of cycles, wherein the first and second time periods, the first and second power levels (P 1 , P 2 ), and the first and second frequencies are determined such that no feature is damaged as a result of delivering the acoustic energy, characterized in that the first time period is shorter than the period after which the temperature inside bubble attains an implosion temperature, and the second time period is longer than the period after which the temperature inside bubble falls down to a temperature much lower than the implosion temperature.
A system for validating a label in which the label is adapted to be attached to an item , the system comprising: the label containing an identifying portion of a circuit path extending between at least a pair of contact points in which the identifying portion of the circuit path includes a segment containing graphene; and a validating device comprising a testing portion of the circuit path adapted to contact the at least the pair of contact points of the identifying portion of the circuit path in the label to thereby complete the circuit path , and in which the testing portion of the validating device is configured to internally process and validate the label in the validating device ; wherein the label includes a plurality of identifying portions of circuit paths , wherein one or more unique graphene segments are read by the validating device to validate the label , and wherein at least some of the plurality of graphene segments are fabricated to be redundant with one another, characterized in that the validating device is configured to compare a set of redundant graphene segments to one another to collectively determine an intended state of any of various graphene segments ; or wherein unused or un-relied-upon graphene segments are randomly reacted to create garbage information not relevant to the logic of the testing portion of the circuit path and the validating device is configured to read all of the redundant segments; or wherein the validation device comprises a randomizing feature configured to only checks some, but not all subsets of the graphene segments which are known to be redundant with one another. the label containing an identifying portion of a circuit path extending between at least a pair of contact points in which the identifying portion of the circuit path includes a segment containing graphene; and a validating device comprising a testing portion of the circuit path adapted to contact the at least the pair of contact points of the identifying portion of the circuit path in the label to thereby complete the circuit path , and in which the testing portion of the validating device is configured to internally process and validate the label in the validating device ; wherein the label includes a plurality of identifying portions of circuit paths , wherein one or more unique graphene segments are read by the validating device to validate the label , and wherein at least some of the plurality of graphene segments are fabricated to be redundant with one another, characterized in that the validating device is configured to compare a set of redundant graphene segments to one another to collectively determine an intended state of any of various graphene segments ; or wherein unused or un-relied-upon graphene segments are randomly reacted to create garbage information not relevant to the logic of the testing portion of the circuit path and the validating device is configured to read all of the redundant segments; or wherein the validation device comprises a randomizing feature configured to only checks some, but not all subsets of the graphene segments which are known to be redundant with one another.
A fluid delivery system, comprising: an outlet tube; a pump for pumping liquid along a fluid path including the outlet tube; a closed sensing tube branched from the fluid path which, in use, is filled with gas; and a sensor configured to sense movement of a liquid front within the sensing tube and, responsive to sensing of said movement, determine that a partial or total occlusion has occurred within the outlet tube, wherein the fluid delivery system further comprises a replaceable cartridge and characterised in that the replaceable cartridge further comprises the sensing tube . an outlet tube; a pump for pumping liquid along a fluid path including the outlet tube; a closed sensing tube branched from the fluid path which, in use, is filled with gas; and a sensor configured to sense movement of a liquid front within the sensing tube and, responsive to sensing of said movement, determine that a partial or total occlusion has occurred within the outlet tube, wherein the fluid delivery system further comprises a replaceable cartridge and characterised in that the replaceable cartridge further comprises the sensing tube .
A crystalline form of a compound of the following Formula c28. wherein the crystalline form has an X-ray diffraction (XRD) spectrum which includes peaks at diffraction angles (2θ) of 6.2°±0.2°, 7.2°±0.2°, 8.8°±0.2°, 17.6°±0.2°, 19.0°±0.2°, 22.5°±0.2°, and 25.1°±0.2° in a case of being irradiated using a Cu-K α light source; or wherein the crystalline form has an X-ray diffraction (XRD) spectrum which includes peaks at diffraction angles (2θ) of 7.0°±0.2°, 14.9°±0.2°, 17.7°±0.2°, 18.8°±0.2°, 20.6°±0.2°, 21.8°±0.2°, and 23.5°±0.2° in a case of being irradiated using a Cu-K α light source; or wherein the crystalline form has an X-ray diffraction (XRD) spectrum which includes peaks at diffraction angles (2θ) of 5.6°±0.2°, 7.3°±0.2°, 15.7°±0.2°, 17.2°±0.2°, 18.9°±0.2°, 21.2°±0.2°, and 21.9°±0.2° in a case of being irradiated using a Cu-K α light source; or wherein the crystalline form has an X-ray diffraction (XRD) spectrum which includes peaks at diffraction angles (2θ) of 5.5°±0.2°, 7.2°±0.2°, 15.3°±0.2°, 17.2°±0.2°, 17.6°±0.2°, 18.9°±0.2°, and 21.1°±0.2° in a case of being irradiated using a Cu-K α light source. wherein the crystalline form has an X-ray diffraction (XRD) spectrum which includes peaks at diffraction angles (2θ) of 6.2°±0.2°, 7.2°±0.2°, 8.8°±0.2°, 17.6°±0.2°, 19.0°±0.2°, 22.5°±0.2°, and 25.1°±0.2° in a case of being irradiated using a Cu-K α light source; or wherein the crystalline form has an X-ray diffraction (XRD) spectrum which includes peaks at diffraction angles (2θ) of 7.0°±0.2°, 14.9°±0.2°, 17.7°±0.2°, 18.8°±0.2°, 20.6°±0.2°, 21.8°±0.2°, and 23.5°±0.2° in a case of being irradiated using a Cu-K α light source; or wherein the crystalline form has an X-ray diffraction (XRD) spectrum which includes peaks at diffraction angles (2θ) of 5.6°±0.2°, 7.3°±0.2°, 15.7°±0.2°, 17.2°±0.2°, 18.9°±0.2°, 21.2°±0.2°, and 21.9°±0.2° in a case of being irradiated using a Cu-K α light source; or wherein the crystalline form has an X-ray diffraction (XRD) spectrum which includes peaks at diffraction angles (2θ) of 5.5°±0.2°, 7.2°±0.2°, 15.3°±0.2°, 17.2°±0.2°, 17.6°±0.2°, 18.9°±0.2°, and 21.1°±0.2° in a case of being irradiated using a Cu-K α light source.
Method of manufacturing an optical waveguide comprising two crystalline semiconductor regions separated by a dielectric layer , the dielectric layer having a predetermined width (I) and a predetermined thickness (e) greater than said width (I), the method comprising the steps of : a) providing a substrate successively comprising an electric insulator layer and a crystalline semiconductor layer , the substrate having a planar surface , b) forming a trench in the semiconductor layer to expose the electric insulator layer and delineate first and second semiconductor areas on either side of the exposed electric insulator layer , step b) being executed so that the first semiconductor area has a lateral edge extending across the entire thickness (E) of the semiconductor layer and along an axis (Z-Z') perpendicular to the planar surface of the substrate , the first semiconductor area being intended to form the first semiconductor region of the optical waveguide , c) forming the dielectric layer with the predetermined width (I) across the entire thickness of the lateral edge , the method being characterized in that the trench formed at step b) is configured so that the second semiconductor area forms a seed layer extending across a thickness (eo) strictly smaller than the thickness (E) of the semiconductor layer , and in that it comprises a step d) of forming by epitaxy the second semiconductor region of the optical waveguide from the seed layer , step d) being executed after step c).
A method for establishing a sectional or modular wind turbine blade , said method comprises the steps of: transporting at least two blade sections of said wind turbine blade and a mobile factory for joining blade sections to a location at or in proximity of a wind turbine site, positioning said blade sections with two blade section ends facing each other and supported on a common platform in said mobile factory, moving said platform in relation to the ground at the location by means of actuators (23-26) for levelling said platform, aligning said blade section ends in relation to each other, and establishing said sectional or modular wind turbine blade by joining blade sections in an area of connection at said blade section ends. transporting at least two blade sections of said wind turbine blade and a mobile factory for joining blade sections to a location at or in proximity of a wind turbine site, positioning said blade sections with two blade section ends facing each other and supported on a common platform in said mobile factory, moving said platform in relation to the ground at the location by means of actuators (23-26) for levelling said platform, aligning said blade section ends in relation to each other, and establishing said sectional or modular wind turbine blade by joining blade sections in an area of connection at said blade section ends.
End effector for gripping and spinning a pipe , the end effector comprising: - a head portion including a first connection interface for connecting the end effector to a mounting face of a robotic arm , - a pair of jaws rotatably connected to the head portion between an open position and a gripping position; - a spinner for spinning a pipe held by the pair of jaws in the gripping position around a spinning axis (A) generally corresponding to a longitudinal centre axis of the pipe; characterised in that the first connection interface has a normal (N1) which is substantially parallel to the spinning axis (A). - a head portion including a first connection interface for connecting the end effector to a mounting face of a robotic arm , - a pair of jaws rotatably connected to the head portion between an open position and a gripping position; - a spinner for spinning a pipe held by the pair of jaws in the gripping position around a spinning axis (A) generally corresponding to a longitudinal centre axis of the pipe; characterised in that the first connection interface has a normal (N1) which is substantially parallel to the spinning axis (A).