mhurhangee/ep-ind-claims huggingface dataset:
A molding stack comprising a core assembly and a cavity assembly for molding a closure, the cavity assembly comprising a gate insert and a cavity insert, the cavity insert defining a portion of a molding cavity defining an outer wall of a top panel of the closure and an outer portion of a side skirt thereof, the core assembly comprising a first inner core, a second inner core, an outer core,a stripper sleeve and a pair of split inserts, the first inner core defining an inner portion of the top panel of the closure, the second inner core defining also an inner portion of the top panel and a portion of a plug seal, the outer core defining another portion of the plug seal, an inner portion of the skirt including features of a thread finish, and a bottom-most portion of a tamper evident band of the closure, and the pair of split inserts defining an outer portion of the skirt and the tamper evident band, the stripper sleeve being movable between an extended configuration and a retracted configuration, and having a pocket defined by a first axial wall and a second transverse wall, wherein in the extended configuration of the stripper sleeve, the second transverse axial wall engages an underside of the bottom-most portion of the tamper evident band of the molded closure and the first axial wall engages a side portion of the tamper evident band of the molded closure, thereby delimiting radial travel of the tamper evident band occurring as the molded closure is stripped off the molding stack.
A method for using an augmented reality headset to co-localize an image data set and a medical implement (118; 312) that has one or more optical codes, comprising: detecting visual image data of a portion of a body of a person and the medical implement using an optical sensor of the AR headset; identifying one or more optical codes (200; 310; 314) associated with the body of the person (106; 300) and the medical implement (118; 312), wherein an optical code (200; 310) on a body of the person (106; 300) is located in a fixed position relative to an image visible marker; aligning the image data set with the body of the person (106; 300) using one or more optical codes (200; 310) on the body of the person (106; 300) as viewed through the AR headset and using the fixed position of the image visible marker with respect to the optical code (200; 310) as referenced to a representation of the image visible marker in the image data set; and determining a position of the medical implement (118; 312) with respect to the body of the person using one or more optical codes (200; 310; 314) on the medical implement (118; 312) and the body of the person (106; 300) to enable the medical implement (118; 312) to be referenced to the image data set and the body of the person, as viewed through the AR headset. detecting visual image data of a portion of a body of a person and the medical implement using an optical sensor of the AR headset; identifying one or more optical codes (200; 310; 314) associated with the body of the person (106; 300) and the medical implement (118; 312), wherein an optical code (200; 310) on a body of the person (106; 300) is located in a fixed position relative to an image visible marker; aligning the image data set with the body of the person (106; 300) using one or more optical codes (200; 310) on the body of the person (106; 300) as viewed through the AR headset and using the fixed position of the image visible marker with respect to the optical code (200; 310) as referenced to a representation of the image visible marker in the image data set; and determining a position of the medical implement (118; 312) with respect to the body of the person using one or more optical codes (200; 310; 314) on the medical implement (118; 312) and the body of the person (106; 300) to enable the medical implement (118; 312) to be referenced to the image data set and the body of the person, as viewed through the AR headset.
A sub-sampling phase-locked loop comprising a digital-to-time converter, a sampler module, an interpolator, and an oscillator; wherein the digital-to-time converter is configured to provide a first delay signal S DLY1 at a first point in time t 1 and a second delay signal S DLY2 at a second point in time t 2 to the sampler module, wherein the first point in time t 1 is before a first ideal sampling instant for an oscillator output signal S OUT and the second point in time t 2 is after a second ideal sampling instant for the oscillator output signal S OUT; wherein the sampler module is configured to provide a first sample S 1 of the oscillator output signal S OUT at the first point in time t 1 based on the first delay signal S DLY1 and a second sample S 2 of the oscillator output signal S OUT at the second point in time t 2 based on the second delay signal S DLY2, wherein the interpolator is configured to provide a sampler signal S SAMPL by interpolating the first sample S 1 and the second sample S 2, wherein the voltage controlled oscillator is configured to control the oscillator output signal S OUT based on the sampler signal S SAMPL, and provide the oscillator output signal S OUT to the sampler module. wherein the digital-to-time converter is configured to provide a first delay signal S DLY1 at a first point in time t 1 and a second delay signal S DLY2 at a second point in time t 2 to the sampler module, wherein the first point in time t 1 is before a first ideal sampling instant for an oscillator output signal S OUT and the second point in time t 2 is after a second ideal sampling instant for the oscillator output signal S OUT; wherein the sampler module is configured to provide a first sample S 1 of the oscillator output signal S OUT at the first point in time t 1 based on the first delay signal S DLY1 and a second sample S 2 of the oscillator output signal S OUT at the second point in time t 2 based on the second delay signal S DLY2, wherein the interpolator is configured to provide a sampler signal S SAMPL by interpolating the first sample S 1 and the second sample S 2, wherein the voltage controlled oscillator is configured to control the oscillator output signal S OUT based on the sampler signal S SAMPL, and provide the oscillator output signal S OUT to the sampler module.
A method of monitoring performance of a thermostat within an engine cooling system, the engine cooling system including a radiator and a coolant pump circulating coolant, the thermostat controlling flow of coolant through the radiator, the method comprising: receiving an engine coolant temperature signal from an engine coolant temperature sensor; supplying the engine coolant temperature signal to an Extended Kalman Filter, the EKF estimating an estimated engine coolant temperature and an estimated thermostat position; comparing the estimated engine coolant temperature with an actual engine coolant temperature as indicated by the engine coolant temperature signal; wherein when the estimated engine coolant temperature is within a temperature range centered on the actual engine coolant temperature, determining that the thermostat position is appropriate; and when the estimated engine coolant temperature is outside a temperature range centered on the actual engine coolant temperature, determining that the thermostat position is not appropriate; and comparing the estimated thermostat position with what an actual thermostat position should be based on the actual engine coolant temperature, and turning on a warning flag when there is a discrepancy between the estimated thermostat position and the actual thermostat position. receiving an engine coolant temperature signal from an engine coolant temperature sensor; supplying the engine coolant temperature signal to an Extended Kalman Filter, the EKF estimating an estimated engine coolant temperature and an estimated thermostat position; comparing the estimated engine coolant temperature with an actual engine coolant temperature as indicated by the engine coolant temperature signal; wherein when the estimated engine coolant temperature is within a temperature range centered on the actual engine coolant temperature, determining that the thermostat position is appropriate; and when the estimated engine coolant temperature is outside a temperature range centered on the actual engine coolant temperature, determining that the thermostat position is not appropriate; and comparing the estimated thermostat position with what an actual thermostat position should be based on the actual engine coolant temperature, and turning on a warning flag when there is a discrepancy between the estimated thermostat position and the actual thermostat position.
Compressor wheel for an exhaust gas turbocharger having a hub base body and shovel blades arranged thereon, wherein the hub base body is formed as a polygon having a number of segments which are tipped with respect to one another, said number corresponding to the number of shovel blades, characterised in that the individual segments have a surface area radially outwards which is straight in cross-section and merge into one another in a saw-tooth manner radially outwards.
A device for forming seam of elbow duct, that molds a lockseam by bending a flange of one pair of adjacent unit members among a plurality of unit members constituting the elbow duct, wherein thetthe device comprises: a base that supports a lower portion of the one pair of unit members (Da, Db); a fixing chuck that supports an inner circumferential surface of a connecting portion of the one pair of unit members (Da, Db); a rotating part that rotates the fixing chuck; and a forming part that bends the flange of the one pair of unit members (Da, Db) in a state where the flange is in contact to each other, to form the seam, characterised in by an elevating part that moves the base up and down and 11 an angle adjustment part that adjusts a supporting angle of the base. a base that supports a lower portion of the one pair of unit members (Da, Db); a fixing chuck that supports an inner circumferential surface of a connecting portion of the one pair of unit members (Da, Db); a rotating part that rotates the fixing chuck; and a forming part that bends the flange of the one pair of unit members (Da, Db) in a state where the flange is in contact to each other, to form the seam, characterised in by an elevating part that moves the base up and down and 11 an angle adjustment part that adjusts a supporting angle of the base.
A method comprising: receiving, by a computing device, first identity data associated with a user; generating, by the computing device and based on the first identity data associated with the user, a first identity token for the user; transmitting, by the computing device and to a plurality of other computing devices, the first identity token for the user; determining, by the computing device, a number corresponding to how many of the plurality of other computing devices that have verified the first identity token; based on the determined number being above a threshold number of other computing devices, storing the first identity token for the user in an identity chain, wherein the first identity token for the user indicates a prior identity token stored in the identity chain; receiving, by the computing device, a request to perform an activity; in response to receiving the request to perform the activity, requesting, by the computing device, second identity data associated with the user; receiving, by the computing device, the second identity data associated with the user; generating, by the computing device and based on the second identity data associated with the user, a second identity token for the user; based on a comparison of the second identity token to the first identity token, authenticating the user and generating an activity token for the activity; and storing the activity token for the activity in an activity chain, wherein the activity token indicates a prior activity token stored in the activity chain. receiving, by a computing device, first identity data associated with a user; generating, by the computing device and based on the first identity data associated with the user, a first identity token for the user; transmitting, by the computing device and to a plurality of other computing devices, the first identity token for the user; determining, by the computing device, a number corresponding to how many of the plurality of other computing devices that have verified the first identity token; based on the determined number being above a threshold number of other computing devices, storing the first identity token for the user in an identity chain, wherein the first identity token for the user indicates a prior identity token stored in the identity chain; receiving, by the computing device, a request to perform an activity; in response to receiving the request to perform the activity, requesting, by the computing device, second identity data associated with the user; receiving, by the computing device, the second identity data associated with the user; generating, by the computing device and based on the second identity data associated with the user, a second identity token for the user; based on a comparison of the second identity token to the first identity token, authenticating the user and generating an activity token for the activity; and storing the activity token for the activity in an activity chain, wherein the activity token indicates a prior activity token stored in the activity chain.
A dental image display device is configured for displaying a two-dimensional captured image captured by visible light and two-dimensional display information in correspondence with each other on a display section, wherein: the two-dimensional captured image captured by visible light is obtained as a result of capturing a tooth which is a target of interest in a direction of an articulation face, and the two-dimensional display information is obtained as a result of displaying three-dimensional information on the tooth two-dimensionally along a predetermined plane, the three-dimensional information containing information on a root canal inside the tooth. the two-dimensional captured image captured by visible light is obtained as a result of capturing a tooth which is a target of interest in a direction of an articulation face, and the two-dimensional display information is obtained as a result of displaying three-dimensional information on the tooth two-dimensionally along a predetermined plane, the three-dimensional information containing information on a root canal inside the tooth.
A bearing pad, including a pad body and a tilting element, for a support body of a bearing arrangement for taking up an axial thrust, characterized in that the tilting element is provided in an elongated recess of the pad body extending in a radial direction such that a contact body of the tilting element extending in the direction of the recess projects beyond a surface of the pad body and the pad body has a higher deformability than the tilting element, wherein the material from which the pad body is made comprises a thermoplastic.
A shaft assembly for a covering or protective device, in particular for a roller shutter, a roller door or an awning, the shaft assembly comprising a hollow shaped hollow section body, which is rotatable about its longitudinal axis and which is arranged to receive a curtain or a panel, wherein the shaft assembly is arranged to be mounted between a first support bearing and a second support bearing, wherein the hollow section body extends between the first support bearing and the second support bearing and comprises a first end facing the first support bearing and a second end facing the second support bearing, wherein at least at the first end or at the second end of the hollow section body a connecting sleeve (126, 128) is provided which may be coupled to the hollow section body, wherein a biasing element (138, 140) is arranged between the hollow section body and the connecting sleeve (126, 128), wherein the connecting sleeve (126, 128) is axially displaceable relative to the hollow section body against a force applied by the biasing element (138, 140), wherein at the hollow section body a pressure piece (132, 134) can be accommodated, at which the biasing element (138, 140) is supported, wherein the pressure piece (132, 134) is arranged to be coupled to a tube segment (150, 152) of the connecting sleeve (126, 128), wherein the biasing element (138, 140) is arranged as a spring, formed concentrically with respect to the tube segment (150, 152) of the connecting sleeve (126, 128), and arranged outside of the tube segment (150, 152), and wherein the tube segment (150, 152) provides a guide for the pressure piece (132, 134) and the biasing element (138, 140), characterized in that the shaft assembly comprises a drive unit which is arranged at least partially in the hollow section body, wherein the drive unit comprises an output for a rotatory driving of the hollow section body, and in that the biasing element (138, 140) does not penetrate into the interior of the hollow section body when the connecting sleeve (126, 128) is at least partially inserted into the interior of the hollow section body.
A process to analyse the sub-seabed in which: - at least one source vessel emits seismic pulses that are reflected by the seabed and the lower layers of the sub-seabed, - the reflected seismic pulses are detected, during the analysis phases by a plurality of underwater seismic streamers (31, 32, 33, 34) and towed beside one another, - the seismic streamers are geographically located by a geographical location device (70a, 70b, 75, 76, 78), - the seismic streamers are located with respect to one another by a relative positioning device comprising acoustic beacons (7 to 18) arranged along each seismic streamer, - a plurality of towing vessels (5, 6) separate from said source vessel, towing at least one of said seismic streamers, characterised in that the seismic streamers are towed, at least during the turns of the towing vessels, at one predetermined depth (P19 to P22) at least, that is different from one towing vessel to the other so as to enable at least two seismic streamers, towed by separate towing vessels, to cross over one another. - at least one source vessel emits seismic pulses that are reflected by the seabed and the lower layers of the sub-seabed, - the reflected seismic pulses are detected, during the analysis phases by a plurality of underwater seismic streamers (31, 32, 33, 34) and towed beside one another, - the seismic streamers are geographically located by a geographical location device (70a, 70b, 75, 76, 78), - the seismic streamers are located with respect to one another by a relative positioning device comprising acoustic beacons (7 to 18) arranged along each seismic streamer, - a plurality of towing vessels (5, 6) separate from said source vessel, towing at least one of said seismic streamers,
A composite tapered tubular assembly comprising: a composite tapered tube extending between a first end and a second end, said tube being tapered so as to have a smaller radius R1 at the first end than a radius R2 at the second end; and a first internal annular wedge provided to be in contact with an inner surface of the tube at said first end and a first external annular wedge provided to be in contact with an outer surface of the tube at said first end and a first nut provided at said first end, said first nut being configured to be connected to said first internal wedge; and said assembly further comprising: a second external annular wedge provided on the outer surface of the tube and a second internal annular wedge provided to be in contact with the inner surface of said composite tube at said second end, and a second nut connected to an internal surface of the second external annular wedge. a composite tapered tube extending between a first end and a second end, said tube being tapered so as to have a smaller radius R1 at the first end than a radius R2 at the second end; and a first internal annular wedge provided to be in contact with an inner surface of the tube at said first end and a first external annular wedge provided to be in contact with an outer surface of the tube at said first end and a first nut provided at said first end, said first nut being configured to be connected to said first internal wedge; and said assembly further comprising: a second external annular wedge provided on the outer surface of the tube and a second internal annular wedge provided to be in contact with the inner surface of said composite tube at said second end, and a second nut connected to an internal surface of the second external annular wedge.
Ignition device for an explosive charge of an active body, comprising: a first thin, strip-shaped metal layer; a second thin, strip-shaped metal layer arranged parallel to the first metal layer; a thin plastic layer arranged between the first thin metal layer and the second thin metal layer, wherein the thin plastic layer is an electrically insulating layer; a first ignition circuit with an ignition bridge and a first energy storage device wired in series on both sides of a switch; a second ignition circuit with a second energy storage device and a consumer which is connected in series between a first end of the first thin metal layer and a first end of the second metal layer; and a first barrel provided in the second metal layer, being directly arranged opposing the ignition bridge, wherein the ignition bridge is provided to evaporate when the switch is closed; and wherein the second ignition circuit is provided such that the evaporation of the ignition bridge effects a flow of current from the second energy storage device in order to trigger the consumer. a first thin, strip-shaped metal layer; a second thin, strip-shaped metal layer arranged parallel to the first metal layer; a thin plastic layer arranged between the first thin metal layer and the second thin metal layer, wherein the thin plastic layer is an electrically insulating layer; a first ignition circuit with an ignition bridge and a first energy storage device wired in series on both sides of a switch; a second ignition circuit with a second energy storage device and a consumer which is connected in series between a first end of the first thin metal layer and a first end of the second metal layer; and a first barrel provided in the second metal layer, being directly arranged opposing the ignition bridge, wherein the ignition bridge is provided to evaporate when the switch is closed; and wherein the second ignition circuit is provided such that the evaporation of the ignition bridge effects a flow of current from the second energy storage device in order to trigger the consumer.
A method for producing a control word k', said method being implemented by processing means of an electronic device cooperating with a terminal, said device including means for receiving an encrypted control wordcfrom the terminal and means for delivering said produced control word k' to said terminal, said method including a step for applying a decryption function D to the encrypted control word c and thus calculating a decrypted word k such that k=D(c), characterized in that the decrypted word k includes a component v and in that the method includes a step (502, 503, 504, 505) for producing the control word k' identical to or different from (504, 505) k, respectively, based on the result of a comparison operation between the values of v and of an identifier i dedicated to the device.