mhurhangee/patent-ind-claim-en huggingface dataset:
A method for autonomously treating a path, comprising: receiving, within a computer server , coordinates defining the path; generating, based upon the coordinates, a path program having a sequence of directives for controlling an autonomous path treatment robot to autonomously treat the path; sending the path program to the autonomous path treatment robot ; treating the path while detecting obstacles; characterized in that determining through texture and location if a detected obstacle corresponds to an obstacle of obstacles identified before with known obstacle coordinates; refining a current location of the path treatment robot in the path based on the known coordinates of the detected obstacle; receiving status information from the autonomous path treatment robot during treatment of the path; and generating documentation indicative of the path treatment by the autonomous path treatment robot based upon the status information. receiving, within a computer server , coordinates defining the path; generating, based upon the coordinates, a path program having a sequence of directives for controlling an autonomous path treatment robot to autonomously treat the path; sending the path program to the autonomous path treatment robot ; treating the path while detecting obstacles; characterized in that determining through texture and location if a detected obstacle corresponds to an obstacle of obstacles identified before with known obstacle coordinates; refining a current location of the path treatment robot in the path based on the known coordinates of the detected obstacle; receiving status information from the autonomous path treatment robot during treatment of the path; and generating documentation indicative of the path treatment by the autonomous path treatment robot based upon the status information.
A cooling apparatus for a switching semiconductor device comprising: a first heat dissipation plate configured to facilitate heat dissipation of a surface of the switching semiconductor device at a cooling apparatus installation space, wherein the cooling apparatus installation space is formed in a predetermined size at the surface of the switching semiconductor device ; and a second heat dissipation plate disposed inside the cooling apparatus installation space along a thickness direction of the first heat dissipation plate , wherein the second heat dissipation plate is configured to contact the first heat dissipation plate so as to allow heat exchange; wherein the first heat dissipation plate is coupled to the surface of the switching semiconductor device so as to allow heat exchange, the first heat dissipation plate comprises a plate-shaped first body , and a first heat dissipation fin protruding from a surface of the plate-shaped first body in a thickness direction, the cooling apparatus installation space extends from the surface of the switching semiconductor device to an end portion of the first heat dissipation fin along the thickness direction of the first body ; the second heat dissipation plate comprises a plate-shaped second body comprising a first heat dissipation fin hole , the first heat dissipation fin is configured to be inserted into the first heat dissipation fin hole , characterized in that the second heat dissipation plate further comprises a second heat dissipation fin protruding from the plate-shaped second body . a first heat dissipation plate configured to facilitate heat dissipation of a surface of the switching semiconductor device at a cooling apparatus installation space, wherein the cooling apparatus installation space is formed in a predetermined size at the surface of the switching semiconductor device ; and a second heat dissipation plate disposed inside the cooling apparatus installation space along a thickness direction of the first heat dissipation plate , wherein the second heat dissipation plate is configured to contact the first heat dissipation plate so as to allow heat exchange; the first heat dissipation plate is coupled to the surface of the switching semiconductor device so as to allow heat exchange, the first heat dissipation plate comprises a plate-shaped first body , and a first heat dissipation fin protruding from a surface of the plate-shaped first body in a thickness direction, the cooling apparatus installation space extends from the surface of the switching semiconductor device to an end portion of the first heat dissipation fin along the thickness direction of the first body ; the second heat dissipation plate comprises a plate-shaped second body comprising a first heat dissipation fin hole , the first heat dissipation fin is configured to be inserted into the first heat dissipation fin hole , characterized in that the second heat dissipation plate further comprises a second heat dissipation fin protruding from the plate-shaped second body .
A surgical stapling apparatus , comprising: a cartridge assembly supporting an array of fasteners therein; an anvil assembly movably positioned relative to the cartridge assembly between an unclamped position and a clamped position for forming the array of fasteners; and a camera assembly coupled to the anvil assembly and positioned to collect and transmit image data of a fastened tissue site wherein the camera assembly is coupled to the anvil assembly via a tether and wherein the camera assembly includes a camera member including a distal camera supported on a distal end portion of the camera member characterised in that the camera member further includes a proximal camera supported on a proximal end portion of the camera member. a cartridge assembly supporting an array of fasteners therein; an anvil assembly movably positioned relative to the cartridge assembly between an unclamped position and a clamped position for forming the array of fasteners; and a camera assembly coupled to the anvil assembly and positioned to collect and transmit image data of a fastened tissue site wherein the camera assembly is coupled to the anvil assembly via a tether and wherein the camera assembly includes a camera member including a distal camera supported on a distal end portion of the camera member characterised in that the camera member further includes a proximal camera supported on a proximal end portion of the camera member.
A system for visualizing ablated tissue comprising: a catheter comprising: a catheter body ; a distal tip positioned at a distal end of the catheter body , the distal tip defining an illumination cavity , the distal tip having one or more openings for exchange of light energy between the illumination cavity and tissue; one or more optical fibers configured to communicate with a light source and a light measuring instrument and to extend through the catheter body into the illumination cavity of the distal tip ; and a light directing member in the form of a body having a front face with a plurality of angled facets and disposed within the illumination cavity such that light from the one or more optical fibers is directed onto the plurality of facets , the light directing member being configured to direct the light energy, using the plurality of facets , to and from the tissue through the one or more openings in the distal tip , wherein the one or more optical fibers are configured to pass light energy from the light source to the light directing member for illuminating tissue outside the distal tip and the one or more optical fibers are configured to relay light energy reflected from the tissue to the light measuring instrument . a catheter body ; a distal tip positioned at a distal end of the catheter body , the distal tip defining an illumination cavity , the distal tip having one or more openings for exchange of light energy between the illumination cavity and tissue; one or more optical fibers configured to communicate with a light source and a light measuring instrument and to extend through the catheter body into the illumination cavity of the distal tip ; and a light directing member in the form of a body having a front face with a plurality of angled facets and disposed within the illumination cavity such that light from the one or more optical fibers is directed onto the plurality of facets , the light directing member being configured to direct the light energy, using the plurality of facets , to and from the tissue through the one or more openings in the distal tip , wherein the one or more optical fibers are configured to pass light energy from the light source to the light directing member for illuminating tissue outside the distal tip and the one or more optical fibers are configured to relay light energy reflected from the tissue to the light measuring instrument .
A nanopore sensor comprising: a nanopore disposed in a support structure ; a fluidic connection between a first fluidic reservoir (cis) and an inlet to the nanopore , with a first ionic solution of a first ionic concentration disposed in the first reservoir (cis); a fluidic connection between a second fluidic reservoir (trans) and an outlet from the nanopore, with a second ionic solution of a second ionic concentration different than the first ionic concentration disposed in the second reservoir (trans), the nanopore providing the sole path of fluidic communication between the first and second reservoirs (cis, trans); an electrical transduction element disposed in contact with that ionic solution of the first and second ionic solutions which has a lower ionic concentration, and the transduction element being arranged at a site that produces in the transduction element an electrical signal indicative of electrical potential local to that ionic solution having a lower ionic concentration; and an electrical circuit connected to the transduction element and including a circuit element adapted to produce an electrical signal indicative of changes in the electrical potential local to that ionic solution having a lower ionic concentration, wherein the nanopore sensor is configured to detect translocation of species from one reservoir (cis) through the nanopore to the other reservoir (trans) based on the changes in the electrical signal. a nanopore disposed in a support structure ; a fluidic connection between a first fluidic reservoir (cis) and an inlet to the nanopore , with a first ionic solution of a first ionic concentration disposed in the first reservoir (cis); a fluidic connection between a second fluidic reservoir (trans) and an outlet from the nanopore, with a second ionic solution of a second ionic concentration different than the first ionic concentration disposed in the second reservoir (trans), the nanopore providing the sole path of fluidic communication between the first and second reservoirs (cis, trans); an electrical transduction element disposed in contact with that ionic solution of the first and second ionic solutions which has a lower ionic concentration, and the transduction element being arranged at a site that produces in the transduction element an electrical signal indicative of electrical potential local to that ionic solution having a lower ionic concentration; and an electrical circuit connected to the transduction element and including a circuit element adapted to produce an electrical signal indicative of changes in the electrical potential local to that ionic solution having a lower ionic concentration, wherein the nanopore sensor is configured to detect translocation of species from one reservoir (cis) through the nanopore to the other reservoir (trans) based on the changes in the electrical signal.
Method for controlling a session (SSX) in which data are exchanged between first terminals (T11, T12, T13) of a first user (U1) with at least one second terminal (T21, T22) of a second user (U2), characterized in that said control method implemented by a control device includes, after receiving an invitation to set up a session (SSX) between said first user (inv(U1, U2), inv(U2,U1), inv(U1→U2)) and the second user, - creating (CREA) a first group (GR1) of first terminals (T11, T12, T13) of the first user suitable for setting up said session (SSX) between the at least one second terminal of the second user and said first group (SSE(GR1, U2)), - setting up a session suitable: • when the at least one second terminal of the second user transmits data, for each of the first terminals of the first user belonging to the first group to receive the data transmitted by the at least one second terminal of the second user; and • when data are transmitted by one of the first terminals (T11, T12, T13) of the first user (U1) during the session (SSX), for the data transmitted from one of the first terminals of the first user to be delivered to said at least one second terminal of the second user and to each of the first terminals (T11, T12, T13) of the first user belonging to said first group (GR1). - creating (CREA) a first group (GR1) of first terminals (T11, T12, T13) of the first user suitable for setting up said session (SSX) between the at least one second terminal of the second user and said first group (SSE(GR1, U2)), - setting up a session suitable: • when the at least one second terminal of the second user transmits data, for each of the first terminals of the first user belonging to the first group to receive the data transmitted by the at least one second terminal of the second user; and • when data are transmitted by one of the first terminals (T11, T12, T13) of the first user (U1) during the session (SSX), for the data transmitted from one of the first terminals of the first user to be delivered to said at least one second terminal of the second user and to each of the first terminals (T11, T12, T13) of the first user belonging to said first group (GR1). • when the at least one second terminal of the second user transmits data, for each of the first terminals of the first user belonging to the first group to receive the data transmitted by the at least one second terminal of the second user; and • when data are transmitted by one of the first terminals (T11, T12, T13) of the first user (U1) during the session (SSX), for the data transmitted from one of the first terminals of the first user to be delivered to said at least one second terminal of the second user and to each of the first terminals (T11, T12, T13) of the first user belonging to said first group (GR1).
An intravaginal controlled release system for the controlled release of one or more organic acids, said release system being characterized in that it comprises a combination of one or more ethylene vinyl acetate (EVA) copolymers and one or more carboxylic polymers, wherein the carboxylic polymers comprise one or more carboxylic (-COOH) groups and are selected from the list consisting of methacrylic acid copolymers, cellulose acetate phthalates (CAP), acrylic acid (co)polymers, alginates, polylactic acids, hypromellose acetate succinates (HPMCAS), and copolymers or mixtures thereof.
An integrated circuit package, comprising: an encapsulation; and a lead frame, a portion of the lead frame disposed within the encapsulation, the lead frame comprising: a first conductor having a first conductive loop disposed substantially within the encapsulation; a second conductor galvanically isolated from the first conductor, wherein the second conductor includes a second conductive loop disposed substantially within the encapsulation proximate to and magnetically coupled to the first conductive loop to provide a communication link between the first and second conductors, and a plurality of external pins that are part of the lead frame and extend from the encapsulation of the integrated circuit package, wherein a first of the pins is coupled to the first conductive loop through the lead frame and second of the pins is coupled to the second conductive loop through the lead frame such that the lead frame provides electrical connectivity to and from internal circuitry within an encapsulated portion of the integrated circuit package. an encapsulation; and a lead frame, a portion of the lead frame disposed within the encapsulation, the lead frame comprising: a first conductor having a first conductive loop disposed substantially within the encapsulation; a second conductor galvanically isolated from the first conductor, wherein the second conductor includes a second conductive loop disposed substantially within the encapsulation proximate to and magnetically coupled to the first conductive loop to provide a communication link between the first and second conductors, and a plurality of external pins that are part of the lead frame and extend from the encapsulation of the integrated circuit package, wherein a first of the pins is coupled to the first conductive loop through the lead frame and second of the pins is coupled to the second conductive loop through the lead frame such that the lead frame provides electrical connectivity to and from internal circuitry within an encapsulated portion of the integrated circuit package. a first conductor having a first conductive loop disposed substantially within the encapsulation; a second conductor galvanically isolated from the first conductor, wherein the second conductor includes a second conductive loop disposed substantially within the encapsulation proximate to and magnetically coupled to the first conductive loop to provide a communication link between the first and second conductors, and a plurality of external pins that are part of the lead frame and extend from the encapsulation of the integrated circuit package, wherein a first of the pins is coupled to the first conductive loop through the lead frame and second of the pins is coupled to the second conductive loop through the lead frame such that the lead frame provides electrical connectivity to and from internal circuitry within an encapsulated portion of the integrated circuit package.
Method for producing an immobilisation element for immobilising a body part of a patient on a supporting surface , wherein the method comprises the following steps: • providing a sheet of thermoplastic material for receiving the body part to be immobilised, • providing a profile which on a first side comprises a first fixing means for fixing the profile to the sheet , and on a second side different from the first side comprises a second fixing means for releasably fixing the profile to the supporting surface , wherein the first fixing means comprises a groove delimited by a first contact surface and a second contact surface opposite the first contact surface for receiving the sheet of thermoplastic material, • placing the sheet of thermoplastic material in the groove of the first fixing means so that the first and the second contact surfaces lie along the sheet , • creating at least one protrusion in at least one of the first contact surface and the second contact surface so that the protrusion penetrates the sheet of thermoplastic material in order to anchor the sheet of thermoplastic material in the groove , wherein the step of creating at least one protrusion in at least one of the first contact surface and second contact surface is carried out by compressing a die and the profile so that the profile is plastically deformed into the first and second contact surfaces provided with at least one protrusion . • providing a sheet of thermoplastic material for receiving the body part to be immobilised, • providing a profile which on a first side comprises a first fixing means for fixing the profile to the sheet , and on a second side different from the first side comprises a second fixing means for releasably fixing the profile to the supporting surface , wherein the first fixing means comprises a groove delimited by a first contact surface and a second contact surface opposite the first contact surface for receiving the sheet of thermoplastic material, • placing the sheet of thermoplastic material in the groove of the first fixing means so that the first and the second contact surfaces lie along the sheet , • creating at least one protrusion in at least one of the first contact surface and the second contact surface so that the protrusion penetrates the sheet of thermoplastic material in order to anchor the sheet of thermoplastic material in the groove , wherein the step of creating at least one protrusion in at least one of the first contact surface and second contact surface is carried out by compressing a die and the profile so that the profile is plastically deformed into the first and second contact surfaces provided with at least one protrusion .
A particle sensor comprising: an enclosure ; a light emitting element configured to emit light toward a detection area (DA); a light receiving element configured to receive light emitted from the light emitting element and scattered due to a particle in the detection area (DA); wherein the light emitting element and the light receiving element are provided inside the enclosure ; the particle sensor being configured to detect particles contained in a gas flowing through an entry point in the enclosure ; wherein the enclosure includes therein a guide path configured to guide the gas to the detection area (DA); and the cross-sectional perimeter in a direction perpendicular to the extending direction of the guide path gradually becomes smaller from an inlet to the guide path toward the detection area (DA); the particle sensor further comprising an exhaust path inside the enclosure located opposite to the guide path in relation to the detection area (DA) and configured to expel the gas that passed through the detection area (DA); wherein the exhaust path extends in a direction perpendicular to the extending direction of the guide path , and an exit point where from gas is expelled is formed at the end of the exhaust path ; the light emitting element and the light receiving element being aligned along the extending direction of the exhaust path ; and the exit point being provided on the exhaust path at the end of the exhaust path opposite the light emitting element . an enclosure ; a light emitting element configured to emit light toward a detection area (DA); a light receiving element configured to receive light emitted from the light emitting element and scattered due to a particle in the detection area (DA); wherein the light emitting element and the light receiving element are provided inside the enclosure ; the particle sensor being configured to detect particles contained in a gas flowing through an entry point in the enclosure ; wherein the enclosure includes therein a guide path configured to guide the gas to the detection area (DA); and the cross-sectional perimeter in a direction perpendicular to the extending direction of the guide path gradually becomes smaller from an inlet to the guide path toward the detection area (DA); the particle sensor further comprising an exhaust path inside the enclosure located opposite to the guide path in relation to the detection area (DA) and configured to expel the gas that passed through the detection area (DA); wherein the exhaust path extends in a direction perpendicular to the extending direction of the guide path , and an exit point where from gas is expelled is formed at the end of the exhaust path ; the light emitting element and the light receiving element being aligned along the extending direction of the exhaust path ; and the exit point being provided on the exhaust path at the end of the exhaust path opposite the light emitting element .