mhurhangee/ep-ind-claims huggingface dataset:
A clock duty cycle calibration and frequency multiplier circuit, comprising: a multiplexing module, configured to output a second clock signal after inverting an input first clock signal (CKin) based on a first control signal; a calibration module, configured to adjust a duty cycle of the second clock signal based on a second control signal, and finally output a third clock signal with a 50% duty cycle; a delay module, configured to output a fourth clock signal after performing a delay operation on the third clock signal based on a third control signal; a detection module, configured to compare the third clock signal and the fourth clock signal that are input thereto, and output a feedback signal (Va) based on a comparison result; a control module, configured to output the first control signal, the second control signal, and the third control signal based on the input feedback signal (Va); and a frequency multiplication module, configured to perform a frequency multiplication operation on the third clock signal, and output a fifth clock signal (CKout); wherein the calibration module comprises a first delay unit, a second delay unit, and a gate circuit, the first delay unit and the second delay unit are connected in parallel and then being connected to the gate circuit, and the first delay unit and the second delay unit are identical adjustable delay units. a multiplexing module, configured to output a second clock signal after inverting an input first clock signal (CKin) based on a first control signal; a calibration module, configured to adjust a duty cycle of the second clock signal based on a second control signal, and finally output a third clock signal with a 50% duty cycle; a delay module, configured to output a fourth clock signal after performing a delay operation on the third clock signal based on a third control signal; a detection module, configured to compare the third clock signal and the fourth clock signal that are input thereto, and output a feedback signal (Va) based on a comparison result; a control module, configured to output the first control signal, the second control signal, and the third control signal based on the input feedback signal (Va); and a frequency multiplication module, configured to perform a frequency multiplication operation on the third clock signal, and output a fifth clock signal (CKout); wherein the calibration module comprises a first delay unit, a second delay unit, and a gate circuit, the first delay unit and the second delay unit are connected in parallel and then being connected to the gate circuit, and the first delay unit and the second delay unit are identical adjustable delay units.
Process of production of a hybrid wheel in light alloy of the type including a front disk and a rim able to be rendered integral by a friction weld, characterized by the fact that it involves the following working phases: - production of the front disk, obtained via a dual operation of casting of an initial foundry preform and transferring the said initial foundry preform into a forging die, plus the operation of forging of the aforesaid initial foundry preform in view of obtaining the front disk, and then the operation of flash removal to obtain the said front disk; - manufacturing of the rim portion, with production of a billet of light alloy, and conversion of the said billet into a circular flank obtained by hot or cold extrusion, followed by expansion of this circular flank to the dimensions of the final rim, plus the operation of hot or cold flow-forming of the disk to the final form and profile of the rim; - assembly of the front disk portion and the rim via welding, involving a friction welding operation after machining of the areas to be assembled. - production of the front disk, obtained via a dual operation of casting of an initial foundry preform and transferring the said initial foundry preform into a forging die, plus the operation of forging of the aforesaid initial foundry preform in view of obtaining the front disk, and then the operation of flash removal to obtain the said front disk; - manufacturing of the rim portion, with production of a billet of light alloy, and conversion of the said billet into a circular flank obtained by hot or cold extrusion, followed by expansion of this circular flank to the dimensions of the final rim, plus the operation of hot or cold flow-forming of the disk to the final form and profile of the rim; - assembly of the front disk portion and the rim via welding, involving a friction welding operation after machining of the areas to be assembled.
A loudspeaker system comprising: a cabinet (11, 21, 31, 41, 51); a speaker unit (12, 22, 32, 42, 52) which is mounted in the cabinet (11, 21, 31, 41, 51); at least one package body (13, 23, 33, 43, 53) which is disposed in a vacant space inside of the cabinet (11, 21, 31, 41, 51) and structured by a bag body for sealing materials thereinto from outside gas and which package body (13, 23, 33, 43, 53) has enough flexibility to transmit, to an inside thereof, a pressure change caused by sound; a predetermined amount of a filler gas (15, 25, 35, 45, 55), which is sealed into the package body (13, 23, 33, 43, 53); and which is sealed into the package body (13, 23, 33, 43, 53) and physically absorbs the filler gas (15, 25, 35, 45, 55), characterized in that the absorbent (14, 24, 34, 44, 54) is of at least one porous material selected from the group consisting of activated carbon, zeolite, silica (SiO 2), alumina (Al 2 O 3), zirconia (ZrO 3), magnesia (MgO), ferrosoferric oxide (Fe 3 O 4), molecular sieve, fullerene, and carbon nanotube. a cabinet (11, 21, 31, 41, 51); a speaker unit (12, 22, 32, 42, 52) which is mounted in the cabinet (11, 21, 31, 41, 51); at least one package body (13, 23, 33, 43, 53) which is disposed in a vacant space inside of the cabinet (11, 21, 31, 41, 51) and structured by a bag body for sealing materials thereinto from outside gas and which package body (13, 23, 33, 43, 53) has enough flexibility to transmit, to an inside thereof, a pressure change caused by sound; a predetermined amount of a filler gas (15, 25, 35, 45, 55), which is sealed into the package body (13, 23, 33, 43, 53); and which is sealed into the package body (13, 23, 33, 43, 53) and physically absorbs the filler gas (15, 25, 35, 45, 55), characterized in that the absorbent (14, 24, 34, 44, 54) is of at least one porous material selected from the group consisting of activated carbon, zeolite, silica (SiO 2), alumina (Al 2 O 3), zirconia (ZrO 3), magnesia (MgO), ferrosoferric oxide (Fe 3 O 4), molecular sieve, fullerene, and carbon nanotube.
Method for the production of a newspaper product from at least one first and one second part-product (31, 32), wherein the first part-product is formed from sheets having a length L 1, and the second part-product is formed from sheets (4") having a length L 2, wherein the length L 2 of the sheets (4") for the second part-product is larger than, preferably double, the length L 1 of the sheets for the first part-product, and wherein the method comprises at least the following steps: a) printing the individual sheets (4', 4") for the first and the second part-product (31, 32), preferably on a paper web and preferably by digital printing; b) singularizing the sheets (4', 4") and collecting the sheets (4', 4") on at least one stack for the first part-product as well as at least one stack (24") for the second part-product; c) transversely folding the stack (24") having the sheets (4") for the second part-product; d) longitudinally folding the collected stacks (24', 24") for the first and the second part-product (31, 32); e) collecting the individual stacks (24', 24") so as to form a newspaper product; and f) preferably conveying away the finished newspaper product, preferably in a shingled stream delivery. a) printing the individual sheets (4', 4") for the first and the second part-product (31, 32), preferably on a paper web and preferably by digital printing; b) singularizing the sheets (4', 4") and collecting the sheets (4', 4") on at least one stack for the first part-product as well as at least one stack (24") for the second part-product; c) transversely folding the stack (24") having the sheets (4") for the second part-product; d) longitudinally folding the collected stacks (24', 24") for the first and the second part-product (31, 32); e) collecting the individual stacks (24', 24") so as to form a newspaper product; and f) preferably conveying away the finished newspaper product, preferably in a shingled stream delivery.
Force measuring device, comprising a transducer device that has a plurality of magnets and generates a magnetic field, and a sensor device (18; 18') that is sensitive to a magnetic field and is arranged in a space in front of the transducer device, wherein the transducer device and the sensor device are moveable relative to each other under the action of a force, wherein the magnets of the transducer device are positioned in a quadrupole arrangement (56; 98; 116; 126; 140) relative to the sensor device (18; 18'), wherein the transducer device has a first center plane, in relation to which the magnets are geometrically symmetrically arranged, and the transducer device has a second center plane, which is transverse to the first center plane and in relation to which the magnets are geometrically symmetrically arranged, and wherein the sensor device has at least one first sensor element and a second sensor element, wherein the first sensor element is associated with a first magnetic pole or with a first pair of magnetic poles, and the second sensor element is associated with a second magnetic pole or second pair of magnetic poles, characterized in that a central region of the quadrupole arrangement has a sensor element of its own associated with it, wherein the central region lies in the region of the line of intersection of the first center plane and the second center plane, and the central region is at least approximately free of a magnetic field.
An apparatus, comprising: a first end guiding light having a first numerical aperture, the first end further having an annular cross-section, the annular cross-section having an inner diameter, the annular cross-section further having an outer diameter; a second end guiding light having a second NA, the first NA being greater than the second NA, the second end further having a circular cross-section; and a waveguide between the first end and the second end, the waveguide producing a varying NA that progressively transitions from the first NA to the second NA, the waveguide having a length, the waveguide further having an effective cross-sectional area that does not decrease along the length of the waveguide, the waveguide further having a decreasing outer diameter from the first end to the second end. a first end guiding light having a first numerical aperture, the first end further having an annular cross-section, the annular cross-section having an inner diameter, the annular cross-section further having an outer diameter; a second end guiding light having a second NA, the first NA being greater than the second NA, the second end further having a circular cross-section; and a waveguide between the first end and the second end, the waveguide producing a varying NA that progressively transitions from the first NA to the second NA, the waveguide having a length, the waveguide further having an effective cross-sectional area that does not decrease along the length of the waveguide, the waveguide further having a decreasing outer diameter from the first end to the second end.
A device for heating an inner race (108; 118, 120) of a bearing arrangement mounted on a shaft (102, 202), comprising: a substantially ring shaped quartz halogen lamp for heating the inner race (108,118,120); a reflector comprising an inner ring extending axially to the shaft (102 202) when mounted thereon and for reflecting heat away therefrom, said reflector also being for reflecting heat from the quartz halogen lamp towards the inner race; and a sleeve for mounting the reflector to the shaft, wherein the sleeve includes a first thermally non-conductive material. a substantially ring shaped quartz halogen lamp for heating the inner race (108,118,120); a reflector comprising an inner ring extending axially to the shaft (102 202) when mounted thereon and for reflecting heat away therefrom, said reflector also being for reflecting heat from the quartz halogen lamp towards the inner race; and a sleeve for mounting the reflector to the shaft, wherein the sleeve includes a first thermally non-conductive material.
Rail vehicle comprising: - at least a first car and An adjacent second car disposed in a longitudinal direction, each car (12, 14) having a front end and a rear end in the longitudinal direction, each car comprising a chassis and a bogie fixed on the chassis, - at least one passageway device connecting the front end of the second car to the rear end of the first car, each car (12, 14) comprising at least one noise-canceling device, characterized in that each noise-canceling device is fixed between the bogie and the passageway device, on the chassis of the car (12, 14), the noise-canceling devices extending mainly in a direction substantially perpendicular to the longitudinal direction. - at least a first car and An adjacent second car disposed in a longitudinal direction, each car (12, 14) having a front end and a rear end in the longitudinal direction, each car comprising a chassis and a bogie fixed on the chassis, - at least one passageway device connecting the front end of the second car to the rear end of the first car,
Flat antenna for satellite communications comprising: - a radiating plate comprising at least one radiating line; and - an adaptation means capable of modifying delays in fields transmitted or received by the said at least one radiating line on the radiating plate; characterised by the fact that the said adaptation means comprises: - a moveable horn rotating between two metallic plates (13a, 13b); and - a multilayer (13a, 20-23) feeding circuit with a first layer formed by at least one of the metallic plates (13a, 13b) housing a network of slit-like sensors, and a last layer equipped with at least a coupling slit connected to the said at least one radiating line of the radiating plate; - the first layer and the last layer connected by at least one transmission line; - the length of the said at least one transmission line connecting the first layer to the last layer designed to introduce a delay needed to focus the wave radiated by the radiating line. - a radiating plate comprising at least one radiating line; and - an adaptation means capable of modifying delays in fields transmitted or received by the said at least one radiating line on the radiating plate; - a moveable horn rotating between two metallic plates (13a, 13b); and - a multilayer (13a, 20-23) feeding circuit with a first layer formed by at least one of the metallic plates (13a, 13b) housing a network of slit-like sensors, and a last layer equipped with at least a coupling slit connected to the said at least one radiating line of the radiating plate; - the first layer and the last layer connected by at least one transmission line; - the length of the said at least one transmission line connecting the first layer to the last layer designed to introduce a delay needed to focus the wave radiated by the radiating line.
An anchor, including: a primary fluke, one end thereof constituting a leading end of said anchor and being adapted to assist in anchorage/embedding of said anchor within a given holding; an elongate shank member fixedly attached to said primary fluke, said shank member being adapted to receive, and releasably retain, at least one anchor line; stabilising means being attached to said primary fluke, said stabilising means serving to ensure that said anchor readily assumes an operating configuration and is restored to said operating configuration even after having been disturbed therefrom, characterised in that a secondary fluke is associated with said shank member and adapted to be fixedly secured to both the uppermost surface of said shank member and to said stabilising means, said secondary fluke being spaced apart from said primary fluke and disposed substantially parallel thereto, and wherein said secondary fluke is of a smaller size than said primary fluke.
A household appliance comprising a body, a cover which enables access into the body, and a handle used for opening/closing the cover, having a gripping portion, one or more connecting elements which attaches the gripping portion to the household appliance, characterized by a recess at the free end of the gripping portion and a plug mounted to the recess, wherein - the plug has a head providing a flat surface at the free end of the gripping portion when placed into the recess, an extension extending from the head into the gripping portion, a locking arm having an elastic structure and extending from the head towards the inside of the gripping portion and a locking pin located at the end of the locking arm, and the recess has an extension recess into which the extension fits and leans to its base preventing the plug from sliding into the gripping portion and a locking recess into which the locking pin fits. - the plug has a head providing a flat surface at the free end of the gripping portion when placed into the recess, an extension extending from the head into the gripping portion, a locking arm having an elastic structure and extending from the head towards the inside of the gripping portion and a locking pin located at the end of the locking arm, and the recess has an extension recess into which the extension fits and leans to its base preventing the plug from sliding into the gripping portion and a locking recess into which the locking pin fits.
A wide format printing system comprising: a first housing (104, 206) mounted within a printing area and configured to receive a first group of removable print beams with a first set of print heads capable of printing onto a substrate within the printing area, wherein the first group of removable print beams are removable from a first side of the printing area; and a second housing (108, 216) mounted within the printing area, the second housing (108, 216) horizontally adjacent to, and oriented opposite of, the first housing (104, 206), wherein the second housing (108, 216) includes a second group of removable print breams with a second set of print heads capable of printing onto the substrate within the printing area, and wherein the second group of removable print beams are removable from a second and different side of the printing area opposite the first side. a first housing (104, 206) mounted within a printing area and configured to receive a first group of removable print beams with a first set of print heads capable of printing onto a substrate within the printing area, wherein the first group of removable print beams are removable from a first side of the printing area; and a second housing (108, 216) mounted within the printing area, the second housing (108, 216) horizontally adjacent to, and oriented opposite of, the first housing (104, 206), wherein the second housing (108, 216) includes a second group of removable print breams with a second set of print heads capable of printing onto the substrate within the printing area, and wherein the second group of removable print beams are removable from a second and different side of the printing area opposite the first side.
A control channel transmission method, wherein the method comprises: receiving a first control channel from a network device, wherein the first control channel information is mapped to M consecutively-numbered first transmission elements, the first control channel is used to schedule a data channel, a transmission element is the smallest unit used to transmit a control channel, and M>1, wherein each of the M first transmission elements comprises T groups of resource elements, REs, and a mapping manner of mapping the first control channel information to the M consecutively-numbered first transmission elements is: first occupying an i th group of REs in each of the M first transmission elements, and then occupying an (i+1) th group of REs in each first transmission element, wherein T ≥ 2, and a value of i ranges from 1 to T, wherein one RE of the REs includes one symbol in time domain, and one subcarrier in frequency domain; and receiving or sending the data channel based on the first control P channel information. receiving a first control channel from a network device, wherein the first control channel information is mapped to M consecutively-numbered first transmission elements, the first control channel is used to schedule a data channel, a transmission element is the smallest unit used to transmit a control channel, and M>1, wherein each of the M first transmission elements comprises T groups of resource elements, REs, and a mapping manner of mapping the first control channel information to the M consecutively-numbered first transmission elements is: first occupying an i th group of REs in each of the M first transmission elements, and then occupying an (i+1) th group of REs in each first transmission element, wherein T ≥ 2, and a value of i ranges from 1 to T, wherein one RE of the REs includes one symbol in time domain, and one subcarrier in frequency domain; and receiving or sending the data channel based on the first control P channel information.
A method comprising: determining (400, 410), by a computing device (10, 200), based at least in part on information included in at least one previous communication from a plurality of previous communications that are associated with a user of the computing device, information associated with an event, the event being associated with a future location and a future time; determining, by the computing device (10, 200), based on the event future time and a type of the event, an arrival time at which the user of the computing device is predicted to need to arrive at the event future location in order to attend the event, wherein the arrival time is prior to the event future time; applying, by the computing device (10, 200), a time tag associated with the event future time to a portion of the information included in the at least one previous communication; associating, by the computing device, a departure time with the time tag, wherein the departure time is based on the arrival time and a travel duration to the event future location; and responsive to determining that a current time associated with the computing device (10, 200) is within a threshold amount of time of the departure time, outputting, by the computing device, a graphical or audible indication having content which is based on the portion of the tagged information included in the at least one previous communication. determining (400, 410), by a computing device (10, 200), based at least in part on information included in at least one previous communication from a plurality of previous communications that are associated with a user of the computing device, information associated with an event, the event being associated with a future location and a future time; determining, by the computing device (10, 200), based on the event future time and a type of the event, an arrival time at which the user of the computing device is predicted to need to arrive at the event future location in order to attend the event, wherein the arrival time is prior to the event future time; applying, by the computing device (10, 200), a time tag associated with the event future time to a portion of the information included in the at least one previous communication; associating, by the computing device, a departure time with the time tag, wherein the departure time is based on the arrival time and a travel duration to the event future location; and responsive to determining that a current time associated with the computing device (10, 200) is within a threshold amount of time of the departure time, outputting, by the computing device, a graphical or audible indication having content which is based on the portion of the tagged information included in the at least one previous communication.