mhurhangee/ep-ind-claims huggingface dataset:
A carrier for a valve train assembly having an intake rocker arm and an exhaust rocker arm, the carrier configured to couple to a cylinder block and configured to be operably associated with the intake rocker arm and the exhaust rocker arm and comprising: a first aperture configured to receive a first cylinder deactivation capsule associated with the intake rocker arm; a second aperture configured to receive a second CDA capsule associated with the exhaust rocker arm; and a third aperture configured to receive a fluid control device, wherein the third aperture is fluidly coupled to the first aperture and the second aperture such that the fluid control device can selectively supply a pressurized fluid to the first and second CDA capsules to transition them between a latched position and an unlatched position, the carrier further comprising: a first support wall; a second support wall; and a support flange extending between the first support wall and the second support wall, wherein the first, second, and third apertures are formed in the support flange, and wherein the first support wall includes a body having a shaft aperture configured to receive a fixed shaft configured to allow the intake rocker arm and the exhaust rocker arm to pivot about the fixed shaft, and a plurality of apertures each configured to receive a fastener configured to facilitate coupling the carrier to the cylinder block. a first aperture configured to receive a first cylinder deactivation capsule associated with the intake rocker arm; a second aperture configured to receive a second CDA capsule associated with the exhaust rocker arm; and a third aperture configured to receive a fluid control device, wherein the third aperture is fluidly coupled to the first aperture and the second aperture such that the fluid control device can selectively supply a pressurized fluid to the first and second CDA capsules to transition them between a latched position and an unlatched position, the carrier further comprising: a first support wall; a second support wall; and a support flange extending between the first support wall and the second support wall, wherein the first, second, and third apertures are formed in the support flange, and wherein the first support wall includes a body having a shaft aperture configured to receive a fixed shaft configured to allow the intake rocker arm and the exhaust rocker arm to pivot about the fixed shaft, and a plurality of apertures each configured to receive a fastener configured to facilitate coupling the carrier to the cylinder block. a first support wall; a second support wall; and a support flange extending between the first support wall and the second support wall, wherein the first, second, and third apertures are formed in the support flange, and wherein the first support wall includes a body having a shaft aperture configured to receive a fixed shaft configured to allow the intake rocker arm and the exhaust rocker arm to pivot about the fixed shaft, and a plurality of apertures each configured to receive a fastener configured to facilitate coupling the carrier to the cylinder block.
A spatial sensing device comprising: a housing including a set of modules; attaching means (1200; 1200') bonded to the housing to secure the device to a user; at least one user information access means; and an ultrasound transducer; wherein the ultrasound transducer is located in the device at a slant angle (α) with respect to the device axis, such that when using the device, the ultrasound transducer is directed toward the user's front side in order to emit and detect signals which are to be processed by the set of modules in the housing, wherein the set of modules comprises: a processing module interacting with an intercommunication module, a position and/or movement sensing module, a space sensing module, and a power module; wherein the position and/or movement sensing module is selected from sensors of the type comprising: position detecting sensors, slope sensors, diversion sensors, and speed detecting sensors; the spatial sensing device comprises a communication system to avoid operation interference with another similar device, and wherein the communication system comprises at least a wireless communication system selected from wi-fi, bluetooth, or any other radio frequency signal being emitted by both devices.
Contact element for making direct electrical contact with a contact area on a printed circuit board, having a plug-in section which is at the front in a plug-in direction, wherein the front plug-in section is formed by a metal sheet having two multi-layered side edges, which are situated opposite one another, and a central section which has fewer layers, in particular one layer, and is located between the said side edges, wherein the two side edges run parallel to one another by way of their outer peripheral edges and are each folded over at least once, characterized in that at least one of the two outer peripheral edges has a projecting contact-making protrusion for making direct electrical contact with a contact area.
A method for setting bit rate for encoding of digital video data, the method comprising: determining a light level in photographic images of captured digital video data depicting a scene, wherein a light level scale is discretized into a plurality of distinct light levels comprising at least a low light level, an intermediate light level and a high light level, and wherein a maximum bit rate for encoding the digital video data is associated with each respective distinct light level; upon the light level being determined to be: the low light level, setting (S304a) a low-light maximum bit rate; the intermediate light level, setting (S304b) an intermediate-light maximum bit rate; or the high light level, setting (S304c) a high-light maximum bit rate; wherein the low-light maximum bit rate is lower than the intermediate-light maximum bit rate and wherein the high-light maximum bit rate is lower than the intermediate-light maximum bit rate. determining a light level in photographic images of captured digital video data depicting a scene, wherein a light level scale is discretized into a plurality of distinct light levels comprising at least a low light level, an intermediate light level and a high light level, and wherein a maximum bit rate for encoding the digital video data is associated with each respective distinct light level; upon the light level being determined to be: the low light level, setting (S304a) a low-light maximum bit rate; the intermediate light level, setting (S304b) an intermediate-light maximum bit rate; or the high light level, setting (S304c) a high-light maximum bit rate; wherein the low-light maximum bit rate is lower than the intermediate-light maximum bit rate and wherein the high-light maximum bit rate is lower than the intermediate-light maximum bit rate. the low light level, setting (S304a) a low-light maximum bit rate; the intermediate light level, setting (S304b) an intermediate-light maximum bit rate; or the high light level, setting (S304c) a high-light maximum bit rate; wherein the low-light maximum bit rate is lower than the intermediate-light maximum bit rate and wherein the high-light maximum bit rate is lower than the intermediate-light maximum bit rate.
A method of determining systolic and diastolic blood pressure, wherein the received data set of separate curves of plethysmographic curve is divided into individual segments with two local minimums given by the beginning and the end and one global maximum that matches one heartbeat of the measured subject and represents one cycle of the heart activity, the course of segments of the plethysmographic curve is then divided into individual sections containing at least one segment with the division up to 20 segments and for the exclusion of the saturated signal from further assessment are according to the constant K a the saturated parts of segments excluded from further assessment and the recommended values are always determined according to a type of the scanning unit as the constant K a respectively its limits, specifically K aMIN a K aMAX, and the course of the plethysmographic curve is then filtered by making averages of consecutive values of the plethysmographic curve, each segment is checked for differences between the amplitude of each segment at the beginning and the end of the curve and only selected segments are left, these segments up to 25 %, selected segments are being normed so that the value of the global maximum is matched with the value 1 and the value 0 is determined as a result of the arithmetic average of the beginning and the end for selected segments with the difference lower than 5 % and/or the values of the plethysmographic curve for the selected segments with the difference lower than 25 % are recalculated in the manner that the beginning and the end of the selected segment have the same value, and are divided into 6 parts under the curve of a segment defined by dividing the segment in time at its maximum and dividing the amplitude of the segment by two dividings one between 20 to 60 % and 40 to 90 % out of the maximum, where the second dividing must be by percentage larger than the first one and the areas S6, S7, S8, S9, S10, S11 are determined for each part as well as the centers of gravity Tx6, Ty6, Tx7, Ty7, Tx8, Ty8, Tx9, Ty9, Tx10, Ty10, Tx11, Ty11 of each part and the centers of gravity Tx, Ty and the total area S of the whole selected segment, at the same time the constants K indS and K indD are determined as the values of the statistic average of subject checking measurements example for systolic and diastolic pressure and the constants K nS and K nD as the values of the statistic average of the subject controlling measurements divided according to the age category for systolic and diastolic pressure and that together with a determination of the range constants K RS and K RD of the measurement range for systolic and diastolic pressure, the quantity D is determined as the first derivation of the leading edge of each segment and now the systolic blood pressure is determined as a result of K RS ∗ K nS ∗ K indS ∗ D ∗ S8 and the diastolic blood pressure is determined as a result of K RD ∗ K nD ∗ K indD ∗ ((Ty ∗ Tx) ∗ S).
Device for spreading granular material, in particular for spreading sand into the gap between a rail and a wheel of a rail vehicle, comprising a housing, at least one inlet for the granular material, and at least one outlet for the granular material, an axially movable metering piston having at least one bore and a compressed air connection opening into a pressure chamber for actuating the metering piston by means of compressed air for metering the granular material, a conveying air chamber which is separate from the pressure chamber being provided with a compressed air connection, and the at least one bore in the metering piston connecting the conveying air chamber to the at least one outlet for the granular material, such that the granular material can be conveyed to the at least one outlet by means of compressed air independently of the metering process, characterised in that a plurality of bores are arranged the metering piston.
A continuous manufacturing method for producing a non-reinforced electrochemical cell component for use in an electrochemical conversion process, where the non-reinforced electrochemical cell component does not have a mesh or fabric layer, the method comprising: - forming a web-form, from a web-material suspension, directly on a surface of a conveyor belt of a conveyor mechanism, wherein the web-material suspension comprises interconnecting entities suspended in a solution, the interconnecting entities having distinct and independent existence and interconnect with each other when put into a confined space or limited volume, the solution having an organic polymer binding material as a solute and a solvent for the solute, and a pore-forming material; - advancing the web-form through a first non-solvent bath, wherein the first non-solvent bath comprises a first non-solvent configured to introduce a phase inversion in the web-form to form a web; - detaching the web from the surface of the conveyor belt; - advancing the web through a pore-forming bath to form the component; and - collecting the component. - forming a web-form, from a web-material suspension, directly on a surface of a conveyor belt of a conveyor mechanism, wherein the web-material suspension comprises interconnecting entities suspended in a solution, the interconnecting entities having distinct and independent existence and interconnect with each other when put into a confined space or limited volume, the solution having an organic polymer binding material as a solute and a solvent for the solute, and a pore-forming material; - advancing the web-form through a first non-solvent bath, wherein the first non-solvent bath comprises a first non-solvent configured to introduce a phase inversion in the web-form to form a web; - detaching the web from the surface of the conveyor belt; - advancing the web through a pore-forming bath to form the component; and - collecting the component.
A method for equalizing an audio signal, wherein the method comprises: receiving the audio signal; applying an adaptive filter to the audio signal to generate a filtered audio signal; driving an acoustic output transducer with the filtered audio signal to generate a sound field; generating a detection audio signal by detecting the sound field after propagating through an acoustic channel with an acoustic input transducer; obtaining a first frequency-domain representation from the detection audio signal that is a composite spectral magnitude response of the acoustic output transducer, the acoustic channel and the acoustic input transducer; applying a delay to the filtered audio signal to obtain a delayed filtered audio signal, wherein the delay includes an approximation of propagation delays of the sound field through the acoustic channel; obtaining a second frequency-domain representation from the delayed filtered audio signal; processing the first frequency-domain representation, the second frequency-domain representation, and a third frequency-domain representation from spectral components of a target spectral magnitude response to generate an estimated spectral magnitude response correction signal; obtaining an equalization-filter control signal from the estimated spectral magnitude response correction signal; and adapting filter characteristics of the adaptive filter in response to the equalization-filter control signal. receiving the audio signal; applying an adaptive filter to the audio signal to generate a filtered audio signal; driving an acoustic output transducer with the filtered audio signal to generate a sound field; generating a detection audio signal by detecting the sound field after propagating through an acoustic channel with an acoustic input transducer; obtaining a first frequency-domain representation from the detection audio signal that is a composite spectral magnitude response of the acoustic output transducer, the acoustic channel and the acoustic input transducer; applying a delay to the filtered audio signal to obtain a delayed filtered audio signal, wherein the delay includes an approximation of propagation delays of the sound field through the acoustic channel; obtaining a second frequency-domain representation from the delayed filtered audio signal; processing the first frequency-domain representation, the second frequency-domain representation, and a third frequency-domain representation from spectral components of a target spectral magnitude response to generate an estimated spectral magnitude response correction signal; obtaining an equalization-filter control signal from the estimated spectral magnitude response correction signal; and adapting filter characteristics of the adaptive filter in response to the equalization-filter control signal.
A surgical implant for maintaining the position of a patient's urethra, characterized in that the implant comprises: (a) a proximal portion having a first width, a first length, and a first thickness, comprising a first non-absorbable biocompatible material; and (b) a distal portion having a second width, a second length, and a second thickness comprising a second non-absorbable biocompatible material; wherein the ratio of the first width to the second width is at least the ratio of the distance between a given human's right and left pectineal ligament to the distance between the given human's right and left periurethral fascia; and wherein the implant is configured to be anchored to the given human's pelvic fascia by the proximal portion, so that the distal portion overlays and contacts an anterior surface of the urethra. (a) a proximal portion having a first width, a first length, and a first thickness, comprising a first non-absorbable biocompatible material; and (b) a distal portion having a second width, a second length, and a second thickness comprising a second non-absorbable biocompatible material; wherein the ratio of the first width to the second width is at least the ratio of the distance between a given human's right and left pectineal ligament to the distance between the given human's right and left periurethral fascia; and wherein the implant is configured to be anchored to the given human's pelvic fascia by the proximal portion, so that the distal portion overlays and contacts an anterior surface of the urethra.
A method comprising: generating a first random challenge comprising a first randomly-generated code at a server; transmitting the first random challenge and an indication of a timeout period associated with the first random challenge from the server to a client; automatically detecting at the client that the first random challenge comprising the first randomly-generated code is no longer valid based on the timeout period; responsively transmitting a request for a new random challenge from the client to the server, wherein transmitting is performed without user intervention; generating a new random challenge comprising a new randomly-generated code at the server responsive to the request for the new random challenge received from the client, and transmitting the new randomly-generated code and an indication of a timeout period associated with the new random challenge to the client; using the new randomly-generated code when authenticating a user with the server using one or more authentication devices on the client, wherein during the operations of authenticating the user, an encrypted version of the new randomly-generated code, is transmitted from the client to the server, and validating the new randomly-generated code at the server to confirm the operations of authenticating the user. generating a first random challenge comprising a first randomly-generated code at a server; transmitting the first random challenge and an indication of a timeout period associated with the first random challenge from the server to a client; automatically detecting at the client that the first random challenge comprising the first randomly-generated code is no longer valid based on the timeout period; responsively transmitting a request for a new random challenge from the client to the server, wherein transmitting is performed without user intervention; generating a new random challenge comprising a new randomly-generated code at the server responsive to the request for the new random challenge received from the client, and transmitting the new randomly-generated code and an indication of a timeout period associated with the new random challenge to the client; using the new randomly-generated code when authenticating a user with the server using one or more authentication devices on the client, wherein during the operations of authenticating the user, an encrypted version of the new randomly-generated code, is transmitted from the client to the server, and validating the new randomly-generated code at the server to confirm the operations of authenticating the user.
A mounting assembly for a chain drive, in particular for an internal combustion engine, having a tensioning or guide rail and an endless chain, wherein at least one fastening device is provided and the endless chain is fixed by the at least one fastening device in longitudinal direction in a slip-proof manner to the tensioning or guide rail; characterized in that the endless chain is arranged double-layered on at least one portion of the tensioning or guide rail and extends closely adjacent and is guided along at least one end face of the tensioning or guide rail.
A rinse-off cleansing composition, comprising: a. from 20% to 34%, by weight of the composition, of surfactant, wherein the surfactant comprises a first branched anionic surfactant and a cosurfactant; b. from 4% to 30%, by weight of the composition, of a perfume, wherein the weight percent of perfume is from 10% to 90%, by weight of the surfactant; c. from 3% to 20%, by weight of the composition, of a solvent, wherein at least 3% of the solvent, by weight of the composition, comprises a hydric solvent, wherein the composition has from 4% to 16%, by weight of the composition, of the hydric solvent, wherein the hydric solvent comprises dipropylene glycol, diethylene glycol, dibutylene glycol, hexylene glycol, butylene glycol, pentylene glycol, heptylene glycol, propylene glycol, a polyethylene glycol having a weight average molecular weight below 500, or a combination thereof; preferably dipropylene glycol, and wherein the weight percent of the hydric solvent is from 8% to 60%, by weight of the surfactant; and d. from 10% to 73%, by weight of the composition, of water; wherein the rinse-off cleansing composition is not a ringing gel, and wherein the composition is a microemulsion or contains a microemulsion phase. a. from 20% to 34%, by weight of the composition, of surfactant, wherein the surfactant comprises a first branched anionic surfactant and a cosurfactant; b. from 4% to 30%, by weight of the composition, of a perfume, wherein the weight percent of perfume is from 10% to 90%, by weight of the surfactant; c. from 3% to 20%, by weight of the composition, of a solvent, wherein at least 3% of the solvent, by weight of the composition, comprises a hydric solvent, wherein the composition has from 4% to 16%, by weight of the composition, of the hydric solvent, wherein the hydric solvent comprises dipropylene glycol, diethylene glycol, dibutylene glycol, hexylene glycol, butylene glycol, pentylene glycol, heptylene glycol, propylene glycol, a polyethylene glycol having a weight average molecular weight below 500, or a combination thereof; preferably dipropylene glycol, and wherein the weight percent of the hydric solvent is from 8% to 60%, by weight of the surfactant; and d. from 10% to 73%, by weight of the composition, of water; wherein the rinse-off cleansing composition is not a ringing gel, and
An illumination reproduction process for illuminating a subject with the illumination at a location in a real or virtual scene when the subject is not in the scene comprising: generating scene illumination data representative of the intensity and color of incident illumination at the location in the scene from each of a plurality of spatial directions using at least one camera (201, 311); illuminating the subject with the illumination at the location in the scene by driving a plurality of light sources surrounding the subject with the scene illumination data; and photographing the subject while illuminated. generating scene illumination data representative of the intensity and color of incident illumination at the location in the scene from each of a plurality of spatial directions using at least one camera (201, 311); illuminating the subject with the illumination at the location in the scene by driving a plurality of light sources surrounding the subject with the scene illumination data; and photographing the subject while illuminated.
A fouling-resistant coating composition which comprises an elastomer selected from one or a mixture of organopolysiloxane polymers, and a component selected from acylated lanolin and lanolin oil, the composition having a solids content of at least 35wt%.