mhurhangee/patent-ind-claim-en huggingface dataset:
Civil engineering machine for creating a hole in the soil comprising: - a device frame , - holding means at an upper area of the device frame to support the civil engineering machine on a support cable or a support bar, - excavating means comprising at least an excavating element which can be rotatably driven and is arranged at a lower end portion on the device frame and configured to remove soil material, - a drive arranged on the device frame for rotatably driving the at least one excavating element and - suction means to suck upwards excavated soil material together with a liquid being in the hole by means of a suction line , wherein the suction means comprises at least one suction opening at the lower end portion of the device frame and a suction pump arranged on the device frame , - wherein the suction line leads to a distribution unit which is arranged on the device frame and to which a discharge line leading upwards and a return line to return a part of the sucked-up liquid to the lower end portion of the device frame are connected, - wherein the distribution unit comprises a sieve characterized in that - the sieve is configured for passage of liquid comprising smaller excavated soil material either to the return line or to the discharge line , - wherein the sieve is configured for passage of a first substream of liquid comprising smaller excavated soil material to the return line , wherein bigger soil particles which cannot pass through the sieve can be discharged upwards in a second substream by means of the suction pump together with liquid via the discharge line . - a device frame , - holding means at an upper area of the device frame to support the civil engineering machine on a support cable or a support bar, - excavating means comprising at least an excavating element which can be rotatably driven and is arranged at a lower end portion on the device frame and configured to remove soil material, - a drive arranged on the device frame for rotatably driving the at least one excavating element and - suction means to suck upwards excavated soil material together with a liquid being in the hole by means of a suction line , wherein the suction means comprises at least one suction opening at the lower end portion of the device frame and a suction pump arranged on the device frame , - wherein the suction line leads to a distribution unit which is arranged on the device frame and to which a discharge line leading upwards and a return line to return a part of the sucked-up liquid to the lower end portion of the device frame are connected, - wherein the distribution unit comprises a sieve characterized in that - the sieve is configured for passage of liquid comprising smaller excavated soil material either to the return line or to the discharge line , - wherein the sieve is configured for passage of a first substream of liquid comprising smaller excavated soil material to the return line , wherein bigger soil particles which cannot pass through the sieve can be discharged upwards in a second substream by means of the suction pump together with liquid via the discharge line .
A torque measurement device comprising: a non-rotating electronic component , the non-rotating electronic component including a controlled clock source ; a rotating electronic component , the rotating electronic component including: a strain sensor configured to output a voltage signal that is proportional to a strain; a Voltage to Frequency Converter (VFC) in electrical communication with the strain sensor , wherein the VFC is configured to receive the voltage signal and convert the voltage signal into a frequency signal that is proportional to the strain, a coil (C1) in electrical communication with the VFC , wherein the coil (C1) is inductively coupled to the remotely located non-rotating electronic component , and wherein the coil (C1) is configured to power the strain sensor via power received from the non-rotating electronic component and transmit the frequency signal to the non-rotating electronic component without physically contacting the non-rotating electronic component , characterized in that the VFC is configured to receive precise timing information from the controlled clock source . a non-rotating electronic component , the non-rotating electronic component including a controlled clock source ; a rotating electronic component , the rotating electronic component including: a strain sensor configured to output a voltage signal that is proportional to a strain; a Voltage to Frequency Converter (VFC) in electrical communication with the strain sensor , wherein the VFC is configured to receive the voltage signal and convert the voltage signal into a frequency signal that is proportional to the strain, a strain sensor configured to output a voltage signal that is proportional to a strain; a Voltage to Frequency Converter (VFC) in electrical communication with the strain sensor , wherein the VFC is configured to receive the voltage signal and convert the voltage signal into a frequency signal that is proportional to the strain, a coil (C1) in electrical communication with the VFC , wherein the coil (C1) is inductively coupled to the remotely located non-rotating electronic component , and wherein the coil (C1) is configured to power the strain sensor via power received from the non-rotating electronic component and transmit the frequency signal to the non-rotating electronic component without physically contacting the non-rotating electronic component , characterized in that the VFC is configured to receive precise timing information from the controlled clock source .
A device triggering method of a mobile communication system by an apparatus, the method comprising: receiving a device trigger registration request message from a server , the device trigger registration request message including a priority and a valid period of a device trigger request; transmitting a subscriber information request message to a Home Subscriber Server, HSS, based on the device trigger registration request message ; receiving a subscriber information response message from the HSS in response to the subscriber information request message ; and based on the receiving of the subscriber information response message from the HSS, transmitting the priority and the valid period via a policy and charging rules function, PCRF, and a packet data network gateway, PGW, to a serving gateway, SGW. receiving a device trigger registration request message from a server , the device trigger registration request message including a priority and a valid period of a device trigger request; transmitting a subscriber information request message to a Home Subscriber Server, HSS, based on the device trigger registration request message ; receiving a subscriber information response message from the HSS in response to the subscriber information request message ; and based on the receiving of the subscriber information response message from the HSS, transmitting the priority and the valid period via a policy and charging rules function, PCRF, and a packet data network gateway, PGW, to a serving gateway, SGW.
A drilling system having a drilling instrument - which has a drive mechanism that drives a drilling tool comprising a segmental drill bit , characterised in that - the drilling tool has three or more drilling segments forming a drill head which shares a common drill bit , the individual drilling segments being driven in a predetermined sequence of motions according to the principle of an oscillating stroke operation. - which has a drive mechanism that drives a drilling tool comprising a segmental drill bit , characterised in that - the drilling tool has three or more drilling segments forming a drill head which shares a common drill bit , the individual drilling segments being driven in a predetermined sequence of motions according to the principle of an oscillating stroke operation.
Intraoral suctioning device for the intraoral negative pressure wound treatment, comprising: a dental splint , an elastic membrane sealing an aperture formed in the dental splint so as to define a sealed wound treatment area on the inside of the dental splint , and a suctioning channel system for evacuating the wound treatment area , characterized in that the aperture is formed as a through-hole and the elastic membrane is elastically deformable upon evacuation of the wound treatment area due to a pressure difference occurring on both sides of the elastic membrane , so that the elastic membrane can enter into the aperture . a dental splint , an elastic membrane sealing an aperture formed in the dental splint so as to define a sealed wound treatment area on the inside of the dental splint , and a suctioning channel system for evacuating the wound treatment area , characterized in that the aperture is formed as a through-hole and the elastic membrane is elastically deformable upon evacuation of the wound treatment area due to a pressure difference occurring on both sides of the elastic membrane , so that the elastic membrane can enter into the aperture .
A bone screw comprising: a tubular body having open proximal and distal ends defining a passageway therethrough; a helical thread circumscribing an outer surface of the tubular body; a head having threading thereon, the head having a lumen extending therethrough; and a shaft insertable through the lumen of the head and the passageway of the tubular body, the shaft coupling the head to the tubular body such that a gap ("G") is defined between a distal surface of the head and the open proximal end of the tubular body, the head pivotable with respect to the tubular body, the bone screw being characterised in that a distal region of the lumen tapers inwardly to a reduced diameter section that has a diameter less than the maximum diameter of a flared portion of the shaft, but greater than an outer diameter of a proximal body portion of the shaft, and in that a distal opening of the lumen has a taper that extends generally outwards and is configured to increase the angular range of the head of the bone screw relative to the shaft of the bone screw. a tubular body having open proximal and distal ends defining a passageway therethrough; a helical thread circumscribing an outer surface of the tubular body; a head having threading thereon, the head having a lumen extending therethrough; and a shaft insertable through the lumen of the head and the passageway of the tubular body, the shaft coupling the head to the tubular body such that a gap ("G") is defined between a distal surface of the head and the open proximal end of the tubular body, the head pivotable with respect to the tubular body, the bone screw being characterised in that a distal region of the lumen tapers inwardly to a reduced diameter section that has a diameter less than the maximum diameter of a flared portion of the shaft, but greater than an outer diameter of a proximal body portion of the shaft, and in that a distal opening of the lumen has a taper that extends generally outwards and is configured to increase the angular range of the head of the bone screw relative to the shaft of the bone screw.
A device , in particular a medical device , to its reception in or coupling with a treatment apparatus , wherein the device is designed with at least, respectively: - one hard part with fluid paths for guiding a fluid, in particular a medical fluid, in particular blood, through the hard part ; - one converter , wherein the converter is arranged to measure a characteristic (Q) of the fluid while it is present in one of the fluid paths ; and - one device for determining a characteristic, in particular a geometrical characteristic (dx, dy) of the device , in particular of a fluid path thereof. - one hard part with fluid paths for guiding a fluid, in particular a medical fluid, in particular blood, through the hard part ; - one converter , wherein the converter is arranged to measure a characteristic (Q) of the fluid while it is present in one of the fluid paths ; and - one device for determining a characteristic, in particular a geometrical characteristic (dx, dy) of the device , in particular of a fluid path thereof.
A pneumatic tire comprising: a tread portion having a generally circumferentially extending groove (36; 36A-D) defined therein, the groove (36; 36A-D) having a groove cross-section defined by a groove bottom and opposed groove sidewalls (40; 42), the groove (36; 36A-D) having a groove width between the opposed groove sidewalls (40; 42); and a sequence of circumferentially spaced stone ejector ribs (52; 52') spanning between the opposed groove sidewalls (40; 42). wherein each stone ejector rib (52; 52') includes at least one circumferentially facing sloped ejector wall (54A; 54B; 54A') sloped at a slope angle in a range of from about 10° to about 30° to a radius of the tire , such that each stone ejector rib (52; 52') has a wider rib base and a narrower rib top narrower than the rib base , and wherein adjacent stone ejector ribs (52; 52') are spaced apart at the rib bases by a base spacing no greater than the groove width, characterized in that adjacent stone ejector ribs (52; 52') are spaced apart at their rib tops by a top spacing equal to or greater than the groove width , so that opposed ejector walls (54A; 54B; 54A'; 54B') of adjacent stone ejector ribs (52; 52') resist retention between the adjacent stone ejector ribs (52; 52') of stones having dimensions equal to or greater than the groove width . a tread portion having a generally circumferentially extending groove (36; 36A-D) defined therein, the groove (36; 36A-D) having a groove cross-section defined by a groove bottom and opposed groove sidewalls (40; 42), the groove (36; 36A-D) having a groove width between the opposed groove sidewalls (40; 42); and a sequence of circumferentially spaced stone ejector ribs (52; 52') spanning between the opposed groove sidewalls (40; 42). wherein each stone ejector rib (52; 52') includes at least one circumferentially facing sloped ejector wall (54A; 54B; 54A') sloped at a slope angle in a range of from about 10° to about 30° to a radius of the tire , such that each stone ejector rib (52; 52') has a wider rib base and a narrower rib top narrower than the rib base , and wherein adjacent stone ejector ribs (52; 52') are spaced apart at the rib bases by a base spacing no greater than the groove width, characterized in that adjacent stone ejector ribs (52; 52') are spaced apart at their rib tops by a top spacing equal to or greater than the groove width , so that opposed ejector walls (54A; 54B; 54A'; 54B') of adjacent stone ejector ribs (52; 52') resist retention between the adjacent stone ejector ribs (52; 52') of stones having dimensions equal to or greater than the groove width .
A system controller for controlling one or more load control devices in a load control environment , the system controller comprising: a control circuit configured to: determine (724;726) a comfort variable of a plurality of comfort variables to adjust wherein the plurality of comfort variables are associated with a comfort level in the load control environment and power consumption of the load control environment; determine an adjustment amount for the comfort variable: calculate an estimated change of a comfort cost based on the adjustment amount for the comfort variable, wherein the comfort cost indicates a monetary value for the comfort level in a load control environment; calculate an estimated change of a power cost based on the adjustment amount for the comfort variable, wherein the power cost indicates a monetary value for a power consumption of the load control environment; and automatically control the one or more load control devices in the load control environment base on the comfort cost and the power cost. determine (724;726) a comfort variable of a plurality of comfort variables to adjust wherein the plurality of comfort variables are associated with a comfort level in the load control environment and power consumption of the load control environment; determine an adjustment amount for the comfort variable: calculate an estimated change of a comfort cost based on the adjustment amount for the comfort variable, wherein the comfort cost indicates a monetary value for the comfort level in a load control environment; calculate an estimated change of a power cost based on the adjustment amount for the comfort variable, wherein the power cost indicates a monetary value for a power consumption of the load control environment; and automatically control the one or more load control devices in the load control environment base on the comfort cost and the power cost.
A method of measuring a distance to an object, by a device having at least two cameras , the method comprising: acquiring one or more first object images including the object by a first camera of the device and one or more first reference images by a second camera of the device , while the device is in a first position , said first and second cameras being on opposite sides of the device; after acquiring the one or more first object images, displaying to a user a video stream currently acquired by one of said first and second cameras , so that the user can use the video stream in directing the device to a second position , wherein a change in position of the device includes a rotation of the device relative to the first position; acquiring one or more second object images including the object by the other of said first and second cameras and acquiring one or more second reference images, by the one of said first and second cameras of the device, while the device is in the second position ; determining , based on the first and second reference images and on knowledge of the extent of rotation and the positions of the first and second cameras on the device, information on a displacement of at least one of said first and second cameras of the device between the first and second positions ; and calculating the distance from the device to the object, based on the first and second object images including the object and the determined information on the displacement of the at least one of said first and second cameras . acquiring one or more first object images including the object by a first camera of the device and one or more first reference images by a second camera of the device , while the device is in a first position , said first and second cameras being on opposite sides of the device; after acquiring the one or more first object images, displaying to a user a video stream currently acquired by one of said first and second cameras , so that the user can use the video stream in directing the device to a second position , wherein a change in position of the device includes a rotation of the device relative to the first position; acquiring one or more second object images including the object by the other of said first and second cameras and acquiring one or more second reference images, by the one of said first and second cameras of the device, while the device is in the second position ; determining , based on the first and second reference images and on knowledge of the extent of rotation and the positions of the first and second cameras on the device, information on a displacement of at least one of said first and second cameras of the device between the first and second positions ; and calculating the distance from the device to the object, based on the first and second object images including the object and the determined information on the displacement of the at least one of said first and second cameras .
Rotor blade for a gas turbine, comprising a blade aerofoil which extends in a radial direction (R) and which has a blade aerofoil body having a peripheral wall with a pressure-side wall section and with a suction-side wall section , having a plate-like crown base which is connected to the peripheral wall in the region of the blade tip , and having a rubbing edge which extends along the peripheral wall , wherein the peripheral wall and the crown base define a cavity in the blade aerofoil body , and in the blade aerofoil body there are formed cooling ducts which extend from the cavity to cooling fluid outlet openings provided in the rubbing edge , wherein, in the end surface of the rubbing edge , there is formed at least one depression into which at least some of the cooling ducts open such that the cooling fluid outlet openings are situated completely in a base region of the depression , wherein, with respect to the radial direction (R), the base region of the at least one depression is arranged between the end surface of the rubbing edge and the outer surface of the crown base , wherein the at least one depression extends as far as an inner side of the rubbing edge so as to form a stepped cross section, and wherein an inner surface of the rubbing edge is, in relation to the radial direction (R), outwardly inclined so as to form a first inclination angle (δ) and is, as viewed along the radial direction, largely rectilinear, and measurement is carried out in a plane which extends in the radial direction (R) and which perpendicularly intersects the rubbing edge , wherein the cooling ducts are, in relation to the radial direction (R), inclined so as to form a second inclination angle (θ), wherein the second inclination angles of the cooling ducts , which angles are each measured in a plane which extends in the radial direction (R) and which perpendicularly intersects the rubbing edge , are equal or approximately equal to the first inclination angle (δ) of the inner surface of the rubbing edge , characterized in that the rubbing edge is aligned on the outside with the peripheral wall and projects radially above the crown base , wherein the first inclination angle (δ) lies in the range of 0° to 45°, and wherein each cooling duct is, in relation to a plane which is perpendicular to the radial direction (R), inclined in the direction of the leading edge of the rotor blade, or in the direction of the trailing edge of the rotor blade, so as to form a third or a fourth inclination angle (α, β), wherein the third inclination angle (α) in the direction of the trailing edge of the rotor blade and the fourth inclination angle (β) in the direction of the leading edge of the rotor blade are each measured in a plane which perpendicularly intersects the measurement plane of the first inclination angle (δ) and each lie in the range between 30° and 80°, such that, due to the arrangement of cooling ducts inclined towards the leading edge, the cooling jets thereof are, during operation, able to be conducted over the tip of the rubbing edge arranged on the suction side.