mhurhangee/patent-ind-claim-en huggingface dataset:
A security feature for authenticating an object , the said security feature comprising: a substrate comprising a first material and having a length (Lg) a width (Wg); and an authenticable two-dimensional code or pattern which is substantially invisible to a person when exposed to visible light, the code or pattern comprising at least one region, the at least one region disposed in the first material, wherein the at least one region comprises a physically changed portion of the first material that creates a second material derived from the first material, wherein said first and second materials are non-emissive when exposed to visible light, and wherein the second material emits visible light to a greater degree than the first material when exposed to electromagnetic radiation that substantially excludes visible light; characterised in that the first material comprises a dopant which is modified in the second material to change the optical properties, the dopant being selected from the group consisting of an alkali metal, a nanocrystal and a semiconductor dopant; and in that the substrate comprises glass selected from the group consisting of silicate glass, nanocrystal doped glass, phosphate glass, silicate phosphate, borosilicate, borophosphate and soda lime glass. a substrate comprising a first material and having a length (Lg) a width (Wg); and an authenticable two-dimensional code or pattern which is substantially invisible to a person when exposed to visible light, the code or pattern comprising at least one region, the at least one region disposed in the first material, wherein the at least one region comprises a physically changed portion of the first material that creates a second material derived from the first material, wherein said first and second materials are non-emissive when exposed to visible light, and wherein the second material emits visible light to a greater degree than the first material when exposed to electromagnetic radiation that substantially excludes visible light; characterised in that the first material comprises a dopant which is modified in the second material to change the optical properties, the dopant being selected from the group consisting of an alkali metal, a nanocrystal and a semiconductor dopant; and in that the substrate comprises glass selected from the group consisting of silicate glass, nanocrystal doped glass, phosphate glass, silicate phosphate, borosilicate, borophosphate and soda lime glass.
A flow meter comprising a measuring channel adapted to be inserted in a pipe through which fluid is flowing, in which measuring channel at least two ultrasonic sensors are arranged, wherein a reflector is arranged at a transverse wall of the measuring channel remote from the ultrasonic sensors , the reflector having a deposition-resistant surface structure, characterized in that resistance to deposition of the reflector is achieved through a bionic structure.
A welding wire delivery system comprising an actuator configured to move the welding wire bidirectionally, characterized in that the actuator is a non-rotational actuator configured to engage, disengage, and move welding wire along a wire delivery path.
A method for preparing an integrated circuit (IC) device, the method comprising: providing a heat sink array having a top-side surface and an under-side surface, the heat sink array having a plurality of heat sink portions with at least two mounting tabs , the plurality of heat sink portions held fixedly together in the heat sink array by the at least two mounting tabs coupled by connecting bars to one another, each heat sink portion having a die placement area on the top-side surface; wherein the plurality of heat sink portions is of a first thickness and the mounting tabs and the connecting bars are of a second thickness, the first thickness being about twice that of the second thickness; die bonding a plurality of active device die onto the die placement areas in the plurality of heat sink portions , thereby forming a plurality of device die/heat sink assemblies ; and sawing through the connecting bars so as to singulate the plurality of device die/heat sink assemblies into individual heat sink device assemblies. providing a heat sink array having a top-side surface and an under-side surface, the heat sink array having a plurality of heat sink portions with at least two mounting tabs , the plurality of heat sink portions held fixedly together in the heat sink array by the at least two mounting tabs coupled by connecting bars to one another, each heat sink portion having a die placement area on the top-side surface; wherein the plurality of heat sink portions is of a first thickness and the mounting tabs and the connecting bars are of a second thickness, the first thickness being about twice that of the second thickness; die bonding a plurality of active device die onto the die placement areas in the plurality of heat sink portions , thereby forming a plurality of device die/heat sink assemblies ; and sawing through the connecting bars so as to singulate the plurality of device die/heat sink assemblies into individual heat sink device assemblies.
A wall of a hot gas part of a gas turbine, comprising - a first surface subjectable to a cooling fluid , - a second surface located opposite of the first surface and subjectable to a hot gas and, - at least one film cooling hole extending from an inlet area located within the first surface to an outlet area located within the second surface for leading the cooling fluid from the first surface to the second surface , wherein the at least one film cooling hole comprises a diffusor section located upstream of the outlet area with regard to a direction of a cooling fluid flow through the film cooling hole , wherein the diffusor section is bordered at least by a diffusor bottom , a downstream edge and two opposing diffusor side walls , wherein the diffusor section comprises a delta wedge element for dividing the cooling fluid flow into two subflows , wherein the delta wedge element - extends from a leading edge to a trailing end with regard to the direction of the cooling fluid flow, - protrudes in a stepwise manner from the diffusor bottom and - is, in a top view, triangular-shaped, wherein the delta wedge element comprises a top surface and two side surfaces , characterized in that the trailing end of the delta wedge element is located upstream of the downstream edge of the diffusor bottom and/or the trailing end i about a distance to the downstream edge of the diffusor section , and that the top surface of the delta wedge element is lower than the second surface and/or the height of the top surface is less than the plane of the second surface and/or the top surface is located underneath the outlet area completely. - a first surface subjectable to a cooling fluid , - a second surface located opposite of the first surface and subjectable to a hot gas and, - at least one film cooling hole extending from an inlet area located within the first surface to an outlet area located within the second surface for leading the cooling fluid from the first surface to the second surface , - extends from a leading edge to a trailing end with regard to the direction of the cooling fluid flow, - protrudes in a stepwise manner from the diffusor bottom and - is, in a top view, triangular-shaped,
Induction cooking device, comprising - a plurality of row lines, - a plurality of column lines, - a plurality of resonant circuit elements (L, C) each including a respective first pole and a respective second pole, and - an inverter (S highside , S lowside ), - wherein each resonant circuit element (L, C) is connected via its first pole to exactly one of the row lines, - wherein each resonant circuit element (L, C) is connected via its second pole to exactly one of the column lines, - wherein each column line includes a respective end-side column switch (Sy), - each row line includes a first row line end and a second row line end, between which ends the respective first poles of the connected resonant circuit elements (L, C) are connected, - the first and second row line ends each are connected to the inverter (S highside , S lowside ), wherein at least on one of the row line ends a respective row switch (Sx) is disposed, characterized in that - a plurality of grid diodes (D) is provided, - respective first poles of the resonant circuit elements (L, C) are connected to a respective grid diode (D) which is connected via the respective second row line end with a conducting direction towards the second row line end, - such that of the first poles connected to one row line at most one respective first pole is directly connected to the second row line end. - a plurality of row lines, - a plurality of column lines, - a plurality of resonant circuit elements (L, C) each including a respective first pole and a respective second pole, and - an inverter (S highside , S lowside ), - wherein each resonant circuit element (L, C) is connected via its first pole to exactly one of the row lines, - wherein each resonant circuit element (L, C) is connected via its second pole to exactly one of the column lines, - wherein each column line includes a respective end-side column switch (Sy), - each row line includes a first row line end and a second row line end, between which ends the respective first poles of the connected resonant circuit elements (L, C) are connected, - the first and second row line ends each are connected to the inverter (S highside , S lowside ), wherein at least on one of the row line ends a respective row switch (Sx) is disposed, - a plurality of grid diodes (D) is provided, - respective first poles of the resonant circuit elements (L, C) are connected to a respective grid diode (D) which is connected via the respective second row line end with a conducting direction towards the second row line end, - such that of the first poles connected to one row line at most one respective first pole is directly connected to the second row line end.
A polypeptide comprising the amino acid sequence: wherein X2 is Ser, Ser(OMe), D-Ser, D-Ser(OMe), Ala or Aib, ; X3 is absent or Gln; X4 is Glu; X16 is Glu; X24 is Ile; X33 is Leu, -D-Leu, D-Ile or Ile; X34 is absent and X21 is Lys wherein the side chain amino (ε amino) group of Lys is acylated with a moiety: {-Q-T-U-W-Y-Z wherein Q and T are absent; U is absent or -C(O)-CH 2 -O-(CH 2 ) 2 -O-(CH 2 ) 2 -NH-} wherein } is point of attachment with group W; W is absent or selected from a group consisting of -C(O)-CH 2 -O-(CH 2 ) 2 -O-(CH 2 ) 2 -NH-], -C(O)-NH-(CH 2 ) 3-4 -NH-], -C(O)-C(CH 3 ) 2 -NH-] and wherein ] is point of attachment with group Y; Y is-C(O)-(CH 2 ) 2 -CH(COOH)NH-- and -- is point of attachment with the group Z; Z is -C(O)-(CH 2 ) n -COOH or -C(O)-(CH 2 ) n -CH 3 wherein n is an integer from 14 to 20. wherein X2 is Ser, Ser(OMe), D-Ser, D-Ser(OMe), Ala or Aib, ; X3 is absent or Gln; X4 is Glu; X16 is Glu; X24 is Ile; X33 is Leu, -D-Leu, D-Ile or Ile; X34 is absent and X21 is Lys wherein the side chain amino (ε amino) group of Lys is acylated with a moiety: {-Q-T-U-W-Y-Z wherein Q and T are absent; U is absent or -C(O)-CH 2 -O-(CH 2 ) 2 -O-(CH 2 ) 2 -NH-} wherein } is point of attachment with group W; W is absent or selected from a group consisting of -C(O)-CH 2 -O-(CH 2 ) 2 -O-(CH 2 ) 2 -NH-], -C(O)-NH-(CH 2 ) 3-4 -NH-], -C(O)-C(CH 3 ) 2 -NH-] and wherein ] is point of attachment with group Y; Y is-C(O)-(CH 2 ) 2 -CH(COOH)NH-- and -- is point of attachment with the group Z; Z is -C(O)-(CH 2 ) n -COOH or -C(O)-(CH 2 ) n -CH 3 wherein n is an integer from 14 to 20.
A plant of the species Citrullus lanatus , wherein said plant is triploid and has a bush growth habit, comprising three copies of a recessive allele designated bush, wherein said bush allele is obtainable by crossing a watermelon plant of which seeds were deposited under accession number NCIMB41906 or NCIMB41905 with another watermelon plant.
Drainage system for draining a combustion engine of an aircraft , said drainage system being configured to collect at least one fluid present inside said combustion engine , said drainage system comprising at least one evacuation conduit for channelling said at least one fluid outside said combustion engine , said at least one fluid comprising at least one liquid and at least one gas, said drainage system comprising: • a separation housing configured to separate said at least one liquid and said at least one gas, said separation housing comprising an inlet , a first outlet and a second outlet , said inlet being arranged in fluid communication with said evacuation conduit , said inlet comprising a first tubular portion extending into the interior of said separation housing and said second outlet comprising a second tubular portion extending into the interior of said separation housing , said first tubular portion being arranged coaxially with said second tubular portion , • a flexible hose comprising a first end connected to said first outlet of said separation housing for collecting by gravity only said at least one liquid, • a pipe comprising a proximal end connected to said second outlet of said separation housing for evacuating only said at least one gas, characterised in that said first tubular portion is arranged at least partially in an internal area of said second tubular portion . • a separation housing configured to separate said at least one liquid and said at least one gas, said separation housing comprising an inlet , a first outlet and a second outlet , said inlet being arranged in fluid communication with said evacuation conduit , said inlet comprising a first tubular portion extending into the interior of said separation housing and said second outlet comprising a second tubular portion extending into the interior of said separation housing , said first tubular portion being arranged coaxially with said second tubular portion , • a flexible hose comprising a first end connected to said first outlet of said separation housing for collecting by gravity only said at least one liquid, • a pipe comprising a proximal end connected to said second outlet of said separation housing for evacuating only said at least one gas,
A method comprising: receiving, by a computing device having at least one processor, specifications for defining a multi-user athletic activity game, wherein the specifications include identification of at least two potential participants; transmitting, by the computing device, a game invitation to at least one of the at least two potential participants; determining, by the computing device, whether a sufficient number of potential participants have accepted the game invitation; in response to determining that a sufficient number of potential participants have accepted, initiating, by the computing device, monitoring of athletic performance statistics of accepted participants; determining, by the computing device, a loser of the athletic activity game based on the athletic performance statistics; and applying, by the computing device, a punishment to the loser of the athletic activity game, wherein the punishment includes requiring the loser to initiate and complete a new athletic activity game without losing; wherein the invitation includes one or more device setting parameters configured to automatically set one or more settings of an accepted participant's athletic performance monitoring device, wherein the device setting parameter is configured to control which sensors are activated and/or used in measuring athletic performance during the game. receiving, by a computing device having at least one processor, specifications for defining a multi-user athletic activity game, wherein the specifications include identification of at least two potential participants; transmitting, by the computing device, a game invitation to at least one of the at least two potential participants; determining, by the computing device, whether a sufficient number of potential participants have accepted the game invitation; in response to determining that a sufficient number of potential participants have accepted, initiating, by the computing device, monitoring of athletic performance statistics of accepted participants; determining, by the computing device, a loser of the athletic activity game based on the athletic performance statistics; and applying, by the computing device, a punishment to the loser of the athletic activity game, wherein the punishment includes requiring the loser to initiate and complete a new athletic activity game without losing; wherein the invitation includes one or more device setting parameters configured to automatically set one or more settings of an accepted participant's athletic performance monitoring device, wherein the device setting parameter is configured to control which sensors are activated and/or used in measuring athletic performance during the game.
Method for dressing a grinding worm or grinding wheel which rotates about an axis of rotation and is intended for grinding a gear or gear-like workpiece having a tooth-shaped profile, which grinding worm or grinding wheel consists at least in part of a dressable abrasive material, in which method, for dressing, a cutting edge is moved towards the flanks of the tooth-shaped profile of the grinding worm , the grinding worm is dressed, and after dressing the cutting edge is moved away from the grinding worm , characterised in that, after the dressing process, in order to strip the grinding worm , a stripping ruler is arranged at an angle φ not equal to zero to the axis of rotation of the grinding worm and the rotating grinding worm is moved relative to the stripping ruler upon contact with the stripping ruler .
A method of increasing the storage capacity of a natural gas storage cavern, characterised in that : cavern pressure and temperature sensors in communication with gaseous natural gas in a natural gas storage cavern are used to monitor the pressure and temperature in a natural gas storage cavern; a pump is used to add liquefied natural gas at a controlled flow rate to gaseous natural gas in the natural gas storage cavern such that the liquefied natural gas reduces the temperature of the gaseous natural gas, the controlled flow rate being based upon feedback from the sensors that monitor the result of the addition of liquefied natural gas to the natural gas storage cavern to achieve a desired reduction in the temperature and associated pressure of the natural gas storage cavern and thereby increase the storage capacity of the natural gas storage cavern . cavern pressure and temperature sensors in communication with gaseous natural gas in a natural gas storage cavern are used to monitor the pressure and temperature in a natural gas storage cavern; a pump is used to add liquefied natural gas at a controlled flow rate to gaseous natural gas in the natural gas storage cavern such that the liquefied natural gas reduces the temperature of the gaseous natural gas, the controlled flow rate being based upon feedback from the sensors that monitor the result of the addition of liquefied natural gas to the natural gas storage cavern to achieve a desired reduction in the temperature and associated pressure of the natural gas storage cavern and thereby increase the storage capacity of the natural gas storage cavern .
Sensor system for determining a temperature and at least one rotation property of an element rotating about at least one axis of rotation , comprising: i) at least one inertial sensor , wherein the inertial sensor has at least one device which is configured to record at least one mechanical variable of the rotating element , wherein the inertial sensor also has at least one temperature sensor which is configured to record at least one temperature of the rotating element , wherein the inertial sensor has at least one first evaluation unit which is configured to generate at least one first signal , which has at least one item of information relating to the recorded temperature, and at least one second signal , which has at least one item of information relating to the recorded mechanical variable; ii) at least one inductive position sensor which is configured to record at least one item of information relating to the rotation property of the rotating element ; iii) at least one second evaluation unit ; characterized in that the inertial sensor has at least one first interface which is configured to wirelessly transmit the first signal and the second signal to the inductive position sensor , wherein the inductive position sensor has at least one second interface which is configured to receive the first signal and the second signal , wherein the inductive position sensor has at least one third interface which is configured to transmit the first signal and the second signal and also the information relating to the rotation property to the second evaluation unit . i) at least one inertial sensor , wherein the inertial sensor has at least one device which is configured to record at least one mechanical variable of the rotating element , wherein the inertial sensor also has at least one temperature sensor which is configured to record at least one temperature of the rotating element , wherein the inertial sensor has at least one first evaluation unit which is configured to generate at least one first signal , which has at least one item of information relating to the recorded temperature, and at least one second signal , which has at least one item of information relating to the recorded mechanical variable; ii) at least one inductive position sensor which is configured to record at least one item of information relating to the rotation property of the rotating element ; iii) at least one second evaluation unit ;
A venous valve prosthesis comprising: a frame ; and a prosthetic valve coupled to an outer surface of the frame and being disposed on the outer surface of the frame, the prosthetic valve including a closed configuration and an open configuration; wherein the prosthetic valve in the closed configuration is configured such that with the venous valve prosthesis implanted in a vein an outer surface of the prosthetic valve is in contact with a wall of the vein around a circumference of the prosthetic valve to prevent blood from flowing past the prosthetic valve between the wall of the vein and the outer surface of the prosthetic valve, and wherein the prosthetic valve is configured to move to the open configuration such that at least a portion of an outer wall of the prosthetic valve partially collapses away from the wall of the vein in response to antegrade blood flow through the vein to enable blood flow between the outer surface of the prosthetic valve and the wall of the vein. a frame ; and a prosthetic valve coupled to an outer surface of the frame and being disposed on the outer surface of the frame, the prosthetic valve including a closed configuration and an open configuration; wherein the prosthetic valve in the closed configuration is configured such that with the venous valve prosthesis implanted in a vein an outer surface of the prosthetic valve is in contact with a wall of the vein around a circumference of the prosthetic valve to prevent blood from flowing past the prosthetic valve between the wall of the vein and the outer surface of the prosthetic valve, and wherein the prosthetic valve is configured to move to the open configuration such that at least a portion of an outer wall of the prosthetic valve partially collapses away from the wall of the vein in response to antegrade blood flow through the vein to enable blood flow between the outer surface of the prosthetic valve and the wall of the vein.