mhurhangee/ep-ind-claims huggingface dataset:
- A method for controlling a process for forming glass containers implementing a facility with several separate forming sections in each of which at least one gob of molten glass is firstly formed into a blank in at least one preform mold, then secondly given its final forming in at least one finishing mold, characterized in that it includes the following steps: - extracting a so-called sample container coming from an identified preform mold and an identified finishing mold; - resting the sample container on a sample holder of a computer-assisted X-ray tomography apparatus; - acquiring by means of the tomography apparatus several X-ray images of the sample container from different projection angles; - sending the X-ray images to a computer; - analyzing X-ray images using the computer to: • construct in a virtual reference frame a three-dimensional digital model of the sample container on the basis of the X-ray images; - and analyzing the three-dimensional digital model to determine at least as a quality indicator of the sample container the rendering of reliefs arranged on the sample container, making it possible to deduce from it an item of adjustment information for at least one control parameter of the forming process in relation to the mold of the sample container. - extracting a so-called sample container coming from an identified preform mold and an identified finishing mold; - resting the sample container on a sample holder of a computer-assisted X-ray tomography apparatus; - acquiring by means of the tomography apparatus several X-ray images of the sample container from different projection angles; - sending the X-ray images to a computer; - analyzing X-ray images using the computer to: • construct in a virtual reference frame a three-dimensional digital model of the sample container on the basis of the X-ray images; • construct in a virtual reference frame a three-dimensional digital model of the sample container on the basis of the X-ray images; - and analyzing the three-dimensional digital model to determine at least as a quality indicator of the sample container the rendering of reliefs arranged on the sample container, making it possible to deduce from it an item of adjustment information for at least one control parameter of the forming process in relation to the mold of the sample container.
Fitting for a vehicle seat, with a first disc-like fitting part, on which a hollow toothed ring is formed, and with a second disc-like fitting part which is rotatable relative to the first fitting part about an axis of rotation of the fitting and on which a spur gear is formed, said spur gear meshing with the hollow toothed ring, as a result of which the two fitting parts (11, 12) form a gear connection with each other, and with a rotatably mounted, revolving eccentric means, which is driven by a driver, for driving a relative rolling movement of spur gear and hollow toothed ring, wherein the first fitting part has a collar which embraces the second fitting part and forms an offset in relation to the first fitting part in the axial direction of the fitting, wherein the collar of the first fitting part is connected to a first adapter plate of the first fitting part via their surfaces facing each other in the axial direction of the fitting, characterized in that the first adapter plate is arranged in an axial intermediate space which is formed by the second fitting part and a second adapter plate of the second fitting part, and therefore, by means of the connection of the first fitting part to the first adapter plate and by means of the collar of the first fitting part, the collar embracing the second fitting part, axial securing of the second fitting part located between the first adapter plate and the first fitting part can be brought about.
A crankshaft suitable for use in a reciprocating compressor of a refrigeration appliance, wherein the reciprocating compressor has a variable refrigeration capacity, the crankshaft comprising a shank which is integrally provided with an overhang portion, a pin for pivotably attaching a connecting rod which is coupled to a piston head, wherein the pin is formed on the overhang portion eccentrically with respect to a rotation axis (Ax) of the shank and a main counterweight which is formed by the overhang portion, wherein a center of mass of the main counterweight is radially opposed to the pin and radially offset from the rotation axis (Ax), characterized by a retainer formed on the main counterweight and an additional counterweight which is slidably seated into the retainer so as to radially move outwards or inwards respectively between an outer position and an inner position, wherein the additional counterweight is resiliently biased towards a rest position.
A rolling bearing system comprising: a bearing ring; a rolling element; and a cage, wherein among a raceway surface of the bearing ring, a rolling contact surface of the rolling element and a guide face of a pocket of the cage for guiding the rolling element, at least the rolling contact surface and the guide face have a hydrophilic layer made of a material having a hydrophilic property, and the rolling bearing system includes water retained by the hydrophilic layer as lubricant. a bearing ring; a rolling element; and a cage, wherein among a raceway surface of the bearing ring, a rolling contact surface of the rolling element and a guide face of a pocket of the cage for guiding the rolling element, at least the rolling contact surface and the guide face have a hydrophilic layer made of a material having a hydrophilic property, and the rolling bearing system includes water retained by the hydrophilic layer as lubricant.
A computer-implemented method for determining a geographic zone of relevance for locating a wireless end-user and making a user notification decision, the method comprising: storing information related to the enterprise in an enterprise database; storing information related to the end-user in an end-user database; accessing said enterprise and user end databases to extract enterprise and end-user related information (200, 204); accessing a geographical database to extract geographic information and to perform location pre-filtering, based on information obtained from the enterprise database; extracting dynamic, low latency inputs relevant to the user comprising one or more of: weather information from a weather service, traffic information from a traffic service, recent financial transaction from a banking enterprise, prices and other varying inputs from a third party with information relevant to the user, via a predefined application programming interface; determining a value for the user notification based on weighting of said extracted dynamic information and historical use information comprising one or more among purchasing preferences, habits and previous responses to location services offers from sources including said enterprise and end-user databases; determining a geographic zone of relevance for the wireless end-user based on comparing a notification value-cost ratio, which is the ratio of the value of notification to the cost of location, to a threshold; and notifying the user, wherein notifying the user meets predetermined criteria for the determined value of notification relative to crossing said threshold (215, 214). storing information related to the enterprise in an enterprise database; storing information related to the end-user in an end-user database; accessing said enterprise and user end databases to extract enterprise and end-user related information (200, 204); accessing a geographical database to extract geographic information and to perform location pre-filtering, based on information obtained from the enterprise database; extracting dynamic, low latency inputs relevant to the user comprising one or more of: weather information from a weather service, traffic information from a traffic service, recent financial transaction from a banking enterprise, prices and other varying inputs from a third party with information relevant to the user, via a predefined application programming interface; determining a value for the user notification based on weighting of said extracted dynamic information and historical use information comprising one or more among purchasing preferences, habits and previous responses to location services offers from sources including said enterprise and end-user databases; determining a geographic zone of relevance for the wireless end-user based on comparing a notification value-cost ratio, which is the ratio of the value of notification to the cost of location, to a threshold; and notifying the user, wherein notifying the user meets predetermined criteria for the determined value of notification relative to crossing said threshold (215, 214).
Method for producing a ready-for-use camshaft for controlling valves of an internal combustion engine, having a carrier shaft on which an end component, for example a drive wheel, a phase adjuster or a part of a phase adjuster, is arranged, and having multiple cam elements which are attached in a positionally fixed manner to the carrier shaft, wherein the method comprises at least the following steps: a) providing the carrier shaft and the end component, b) joining the end component to the carrier shaft, c) grinding at least the carrier shaft to form cam seats so as to establish readiness for use and machining of the end component so as to establish readiness for use, d) introducing a surface profile into a first cam seat, e) providing a cam element with ready-for-use characteristics, f) seating the cam element on the cam seat provided with the surface profile, and g) repeating steps d) to f) with a frequency corresponding to a required number of cam elements. a) providing the carrier shaft and the end component, b) joining the end component to the carrier shaft, c) grinding at least the carrier shaft to form cam seats so as to establish readiness for use and machining of the end component so as to establish readiness for use, d) introducing a surface profile into a first cam seat, e) providing a cam element with ready-for-use characteristics, f) seating the cam element on the cam seat provided with the surface profile, and g) repeating steps d) to f) with a frequency corresponding to a required number of cam elements.
A secure characterization method of a microcircuit card, said method comprising communication according to a communication method between a microcircuit card and a computer application executed by a host by means of an interface, comprising a step for initialization of communication, then a data-exchange step between the microcircuit card and the application, characterized in that, during the initialization step, if the microcircuit card allows,, negotiation (3140, 3150) of a communication speed greater than a minimum communication speed is performed between the microcircuit card and the interface, and in that during the data-exchange step, the interface transmits to the application all the data that said interface receives (3260, 3270) originating from the microcircuit card, this transmission being executed independently of the conformity of said data with a communication standard between the microcircuit card and the interface, and with the communication speed resulting from said negotiation, wherein during the exchange step: • the microcircuit card processes a command coming from the application then sends a response to the interface, • the interface introduces the response into a buffer memory without analysis, then, once a configurable period has elapsed, during which the interface has received nothing from the microcircuit card, transmits the entire content of the buffer memory to the application. • the microcircuit card processes a command coming from the application then sends a response to the interface, • the interface introduces the response into a buffer memory without analysis, then, once a configurable period has elapsed, during which the interface has received nothing from the microcircuit card, transmits the entire content of the buffer memory to the application.
A method of imaging a biospecimen, comprising (a) labeling the biospecimen with a pH-sensitive label to form a labeled biospecimen, (b) submerging the labeled biospecimen and a surface of an electrode in a buffered solution having a pH value, wherein the buffered solution comprises a pH modulating agent; the surface optionally comprises microstructures; the labeled biospecimen is coupled to the surface or to the microstructures; and the microstructures, when present, define a volume between the biospecimen and the surface, through which the pH modulating agent diffuses, (c) applying a potential or a current to the electrode, whereupon the pH modulating agent causes a change in the pH value in a zone adjacent to the surface of the electrode, thereby causing the pH-sensitive label within the zone to produce an optical signal, and (d) detecting the optical signal thereby imaging the labeled biospecimen. (a) labeling the biospecimen with a pH-sensitive label to form a labeled biospecimen, (b) submerging the labeled biospecimen and a surface of an electrode in a buffered solution having a pH value, wherein the buffered solution comprises a pH modulating agent; the surface optionally comprises microstructures; the labeled biospecimen is coupled to the surface or to the microstructures; and the microstructures, when present, define a volume between the biospecimen and the surface, through which the pH modulating agent diffuses, the buffered solution comprises a pH modulating agent; the surface optionally comprises microstructures; the labeled biospecimen is coupled to the surface or to the microstructures; and the microstructures, when present, define a volume between the biospecimen and the surface, through which the pH modulating agent diffuses, (c) applying a potential or a current to the electrode, whereupon the pH modulating agent causes a change in the pH value in a zone adjacent to the surface of the electrode, thereby causing the pH-sensitive label within the zone to produce an optical signal, and (d) detecting the optical signal thereby imaging the labeled biospecimen.
A circuit module comprising a first module and a second module, the first module comprising: a ground connection; a power connection; a shunt regulator coupled to the power connection and to the ground connection; wherein the shunt regulator (121, 703) includes an active current sink, the active current sink is adjusted by the shunt regulator to regulate a voltage between the power connection and the ground connection to a predetermined target voltage; a current measuring circuit that measures a current flowing between the power connection and the ground connection; one or more communication connections (116, 118); and a digital logic circuit (218, 606) coupled to the one or more communication connections to send and receive communications, wherein the digital logic circuit responds to communications addressed to a communication address with the communication address based on the current measured by the current measuring circuit; wherein the first module is identical to the second module; a first power voltage is coupled to the first module via a first source resistor; and a second power voltage is coupled to the second module via a second source resistor, wherein the first source resistor is not the same as the second source resistor. a ground connection; a power connection; a shunt regulator coupled to the power connection and to the ground connection; wherein the shunt regulator (121, 703) includes an active current sink, the active current sink is adjusted by the shunt regulator to regulate a voltage between the power connection and the ground connection to a predetermined target voltage; a current measuring circuit that measures a current flowing between the power connection and the ground connection; one or more communication connections (116, 118); and a digital logic circuit (218, 606) coupled to the one or more communication connections to send and receive communications, wherein the digital logic circuit responds to communications addressed to a communication address with the communication address based on the current measured by the current measuring circuit; wherein the first module is identical to the second module; a first power voltage is coupled to the first module via a first source resistor; and a second power voltage is coupled to the second module via a second source resistor, wherein the first source resistor is not the same as the second source resistor.
Fluid dynamic machine with blade rotors, comprising a body, a rotor rotatably housed by the body, at least two blades rotatably provided, uniformly distributed along a circumference of the rotor and supported on a parallel axis to the axis of the rotor, transmission means (7, 8, 9, 10) between each axis of the blade and a sleeve rotatable on the shaft of the rotor, characterised in that the first rotor is associated with a second rotor rotatably housed by the first rotor, the second rotor comprising at least two blades rotatably provided, uniformly distributed along a circumference of the rotor and supported on a parallel axis to the axis of the rotor, transmission means (24, 25, 26, 27, 28) between each axis of the blade and the sleeve rotatable on the shaft of the rotor.
A magnetic chip detector (28; 128; 228; 328; 428) comprising: a first electric terminal (32; 432); and a second electric terminal (34; 434) spaced apart from the first electric terminal (32; 432) to define a gap (38; 438) therebetween, the gap (38; 438) having a width between the first (32; 432) and second (34; 434) electric terminals and a depth between a first side (38A; 438A) and a second side (38B; 438B) of the gap (38; 438), the first side (38A; 438A) of the gap (38; 438) defining an opening for establishing fluid communication between the gap (38; 438) and an ambient environment, characterised in that: the magnetic chip detector further comprises a magnet (36; 436) disposed outside of the gap (38; 438) and adjacent the second side (38B; 438B) of the gap (38; 438), the magnet (36; 436) including a recess defining a cavity (40; 440) in fluid communication with the gap (38; 438) to collect one or more magnetic chips that have entered the gap (38; 438) via the opening. a first electric terminal (32; 432); and a second electric terminal (34; 434) spaced apart from the first electric terminal (32; 432) to define a gap (38; 438) therebetween, the gap (38; 438) having a width between the first (32; 432) and second (34; 434) electric terminals and a depth between a first side (38A; 438A) and a second side (38B; 438B) of the gap (38; 438), the first side (38A; 438A) of the gap (38; 438) defining an opening for establishing fluid communication between the gap (38; 438) and an ambient environment,
A method of detecting particles including: emitting a modulated beam of radiation into a monitored region; and detecting an increase in scattered radiation intensity in images of the region indicating the presence of particles, characterised by: processing the images as frames which are divided into sections which represent spatial positions within the monitored region; monitoring intensity levels in the associated sections of the images; assigning different threshold values for different spatial positions within the region which correspond to the associated sections, wherein the scattered radiation intensity is determined by subtracting the sum of light received when the laser is off from the sum of light received when the laser is on; and the increase in scattered radiation intensity is assessed with reference to said threshold values. emitting a modulated beam of radiation into a monitored region; and detecting an increase in scattered radiation intensity in images of the region indicating the presence of particles, characterised by: processing the images as frames which are divided into sections which represent spatial positions within the monitored region; monitoring intensity levels in the associated sections of the images; assigning different threshold values for different spatial positions within the region which correspond to the associated sections, wherein the scattered radiation intensity is determined by subtracting the sum of light received when the laser is off from the sum of light received when the laser is on; and the increase in scattered radiation intensity is assessed with reference to said threshold values. processing the images as frames which are divided into sections which represent spatial positions within the monitored region; monitoring intensity levels in the associated sections of the images; assigning different threshold values for different spatial positions within the region which correspond to the associated sections, wherein the scattered radiation intensity is determined by subtracting the sum of light received when the laser is off from the sum of light received when the laser is on; and the increase in scattered radiation intensity is assessed with reference to said threshold values.
A method for transmitting a video signal compatible with the SVC extension of H.264/AVC comprising: selecting a first scalable layer of a scalable video coded signal as a channel change layer; the first scalable layer having an associated dependency_id value that is less than an associated dependency_id value of a second scalable layer of the scalable video coded signal; and transmitting the scalable video coded signal in packet form using a Real-time Transport Protocol such that non-random access point slices are conveyed in Simple Time Aggregation-A Packets, each Simple Time Aggregation-A Packet comprising a Payload Content Scalability Information Network Abstraction Layer Unit; wherein the transmitting step includes setting a DID field of the Payload Content Scalability Information Network Abstraction Layer Unit to a lowest value of the dependency_id value of the remaining Network Abstraction Layer Units in the respective Simple Time Aggregation-A Packet; characterized in that the transmitting step also includes setting an RR field of the Payload Content Scalability Information Network Abstraction Layer Unit to a highest value of the dependency_id value of the remaining Network Abstraction Layer Units in the respective Simple Time Aggregation-A Packet. selecting a first scalable layer of a scalable video coded signal as a channel change layer; the first scalable layer having an associated dependency_id value that is less than an associated dependency_id value of a second scalable layer of the scalable video coded signal; and transmitting the scalable video coded signal in packet form using a Real-time Transport Protocol such that non-random access point slices are conveyed in Simple Time Aggregation-A Packets, each Simple Time Aggregation-A Packet comprising a Payload Content Scalability Information Network Abstraction Layer Unit; wherein the transmitting step includes setting a DID field of the Payload Content Scalability Information Network Abstraction Layer Unit to a lowest value of the dependency_id value of the remaining Network Abstraction Layer Units in the respective Simple Time Aggregation-A Packet; characterized in that the transmitting step also includes setting an RR field of the Payload Content Scalability Information Network Abstraction Layer Unit to a highest value of the dependency_id value of the remaining Network Abstraction Layer Units in the respective Simple Time Aggregation-A Packet.