mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for simulating an output of a downhole inertial measurement unit, IMU, as a means for verifying and validating the downhole IMU's sensors are working properly and to further improve implemented algorithms, the downhole IMU being composed of sensor packages that include accelerometers, gyroscopes, magnetometers and pressure sensors for providing information in real-time to enable Autonomous Guidance While Drilling, an Autonomous Guidance While Drilling system being a system that estimates the trajectory of a borehole in real-time and provides real-time autonomous navigation and guidance for a bottom hole assembly, the implemented algorithms being navigation algorithms for controlling the autonomous guidance while drilling system, the method comprising generating a trajectory between a plurality of survey points of a planned well data as a function of time, the planned well data comprising a plurality of three-dimensional coordinates corresponding to the survey points of an underground planned well, the trajectory comprising a plurality of trajectory coordinates between consecutive ones of the survey points; generating, by simulating, sensor data for each of the trajectory coordinates as a function of time based on geodetic reference parameters , the generated sensor data comprising: generated accelerometer output ; generated gyroscopic output ; and generated magnetometer output ; receiving, sensor noise parameters; adding, sensor noise to the generated three axis accelerometer output, the generated gyroscopic output, and the generated magnetometer output; and outputting, subsequently to the step of adding sensor noise, the generated accelerometer output; the generated gyroscopic output; and the generated magnetometer output as a function of time as a simulated output of the downhole IMU. generating a trajectory between a plurality of survey points of a planned well data as a function of time, the planned well data comprising a plurality of three-dimensional coordinates corresponding to the survey points of an underground planned well, the trajectory comprising a plurality of trajectory coordinates between consecutive ones of the survey points; generating, by simulating, sensor data for each of the trajectory coordinates as a function of time based on geodetic reference parameters , the generated sensor data comprising: generated accelerometer output ; generated gyroscopic output ; and generated magnetometer output ; receiving, sensor noise parameters; adding, sensor noise to the generated three axis accelerometer output, the generated gyroscopic output, and the generated magnetometer output; and outputting, subsequently to the step of adding sensor noise, the generated accelerometer output; the generated gyroscopic output; and the generated magnetometer output as a function of time as a simulated output of the downhole IMU.
A camera module, the camera module comprising: a PCB ; an image sensor mounted on the PCB and formed with an image pickup device; a base mounted on the PCB and including a plated portion formed at a lower center with an opening mounted with an IR, infrared, filter , and corner pillar portions each erected at a corner portion of the plated portion; a lower spring plate formed with a conductive material, and coupled to an upper surface of the plated portion of the base ; a lens actuator including a bobbin elastically supported by the lower spring plate and accommodated inside a lens assembly , and a yoke wrapping the bobbin and coupled to an upper surface of the base ; an upper spring plate coupled to an upper surface of the lens actuator to supportively apply a pressure to the lens actuator ; and a cover arranged on an upper surface of the upper spring plate , coupled to a corner pillar portion of the base and formed thereon with a hole, wherein the lower spring plate is formed with an upwardly-protruding yoke terminal to supply an electric power to the lens actuator , characterized in that an upper surface of the plated portion of the base is formed with an accommodation structure inwardly stair-cased for accommodating the lower spring plate , wherein the lower spring plate is accommodated by the staircases at the upper surface of the plated portion of the base to structurally prevent from exposing to an external surface of the base , whereby the lower spring plate is prevented from being short-circuited with an external conductive material. a PCB ; an image sensor mounted on the PCB and formed with an image pickup device; a base mounted on the PCB and including a plated portion formed at a lower center with an opening mounted with an IR, infrared, filter , and corner pillar portions each erected at a corner portion of the plated portion; a lower spring plate formed with a conductive material, and coupled to an upper surface of the plated portion of the base ; a lens actuator including a bobbin elastically supported by the lower spring plate and accommodated inside a lens assembly , and a yoke wrapping the bobbin and coupled to an upper surface of the base ; an upper spring plate coupled to an upper surface of the lens actuator to supportively apply a pressure to the lens actuator ; and a cover arranged on an upper surface of the upper spring plate , coupled to a corner pillar portion of the base and formed thereon with a hole, wherein the lower spring plate is formed with an upwardly-protruding yoke terminal to supply an electric power to the lens actuator , characterized in that an upper surface of the plated portion of the base is formed with an accommodation structure inwardly stair-cased for accommodating the lower spring plate , wherein the lower spring plate is accommodated by the staircases at the upper surface of the plated portion of the base to structurally prevent from exposing to an external surface of the base , whereby the lower spring plate is prevented from being short-circuited with an external conductive material.
A transport apparatus with an infeed for conveying a multitude of similarly shaped and sized articles in a mass flow, with a distribution section located downstream of the infeed , which distribution section leads in conveying direction (FR) of the articles into a row transport , in which the articles are conveyed further or transported away in at least two parallel rows that are separate from each other, and with at least one sensor device assigned to the infeed , to the distribution section , or to the rows in order to detect and monitor the mass flow in the infeed , in the distribution section , or within the rows , which at least one sensor device is in terms of signalling coupled via a control unit to a motor-driven actuator assigned to the distribution section to influence a lateral distribution of the articles , wherein the actuator moves a movable guiding device , which is adjacent to the article flow on at least one side, in the event of gaps, interruptions, or a termination of the article flow in the infeed , in the distribution section , or within the rows being detected, characterised in that the transport apparatus furthermore comprises a robot or another manipulator with a suitable tool, wherein the robot or manipulator is configured to distribute individual articles in a final phase with only few articles still feeding towards the distribution section , which is designed as a container divider, in such a manner that preferably all lanes are served evenly to the container divider for the separate row transport of the articles such that complete bundles can be produced for as long as possible without a manual intervention by an operator becoming necessary at the infeed in the event of a change of article type.
Filter system for filtering a fluid having a frontal inlet and outlet , comprising - at least one filter element , - a filter housing , - a coupling device for coupling the filter system to a receptacle external to the filter system, - a seal retainer having a seal for sealing the filter system at the receptacle , wherein the coupling device provides one or more coupling elements which can be introduced by a slide-and-turn movement at least partially in an axial direction (L) into a coupling contour disposed in the receptacle so as to hold and lock the filter system in the receptacle in a final position , characterized in that the seal retainer is made in one piece and surrounds the seal substantially in a U-shaped manner, wherein the one-piece seal retainer is connected on a frontal edge of the filter housing to the filter housing , wherein the coupling device is positively connected to the seal retainer and the coupling device comprises a clamping element which, in the installed state, clamps the filter system axially against the receptacle , and wherein the coupling device features one or more holding elements for holding the clamping element . - at least one filter element , - a filter housing , - a coupling device for coupling the filter system to a receptacle external to the filter system, - a seal retainer having a seal for sealing the filter system at the receptacle , wherein the coupling device provides one or more coupling elements which can be introduced by a slide-and-turn movement at least partially in an axial direction (L) into a coupling contour disposed in the receptacle so as to hold and lock the filter system in the receptacle in a final position , characterized in that the seal retainer is made in one piece and surrounds the seal substantially in a U-shaped manner, wherein the one-piece seal retainer is connected on a frontal edge of the filter housing to the filter housing , wherein the coupling device is positively connected to the seal retainer and the coupling device comprises a clamping element which, in the installed state, clamps the filter system axially against the receptacle , and wherein the coupling device features one or more holding elements for holding the clamping element .
Method for maintaining transport address associations with a transport address translation entity placed in cut-through configuration of the flow between a first device and a second device , the maintaining method being intended to be implemented by the first device and comprising: - a step of sending (E10, F10, H10), in accordance with a first transport protocol, a first message (R1, R3, R5) having a first transport address, called first private transport address, to the second device, this first message being able to trigger a first association, by the transport address translation entity, of a first transport address, called first public transport address, with the first private transport address and with the first transport protocol; - upon reception of a response (M1', M3', M5') to the first message from the second device, a step of sending (E90, F90, H90), in accordance with a second transport protocol, a second message having a second private transport address to the second device, this second message being able to trigger a second association, by the transport address translation entity , of said second private transport address with a second transport address, called second public transport address, and with the second transport protocol, the second message furthermore containing information, called correspondence information, also contained in the first message and/or in the response to the first message, and able to trigger, following the reception of the second message by the second device, the matching, by the second device, of the second public transport address with the first public transport address. - a step of sending (E10, F10, H10), in accordance with a first transport protocol, a first message (R1, R3, R5) having a first transport address, called first private transport address, to the second device, this first message being able to trigger a first association, by the transport address translation entity, of a first transport address, called first public transport address, with the first private transport address and with the first transport protocol; - upon reception of a response (M1', M3', M5') to the first message from the second device, a step of sending (E90, F90, H90), in accordance with a second transport protocol, a second message having a second private transport address to the second device, this second message being able to trigger a second association, by the transport address translation entity , of said second private transport address with a second transport address, called second public transport address, and with the second transport protocol, the second message furthermore containing information, called correspondence information, also contained in the first message and/or in the response to the first message, and able to trigger, following the reception of the second message by the second device, the matching, by the second device, of the second public transport address with the first public transport address.
A communication method performed by a user equipment, UE, the method comprising: • acquiring (no), on an anchor carrier, synchronization information to synchronize with a base station, wherein a system bandwidth between the UE and the base station comprises the anchor carrier and at least one supplementary carrier, • acquiring , on the anchor carrier, system information, wherein the system information comprises information about identities and frequency locations of the carriers, • selecting one of the carriers according to an identity of the UE and the identities of the carriers, and • accessing on the selected carrier, the base station, and communicating with the base station. • acquiring (no), on an anchor carrier, synchronization information to synchronize with a base station, wherein a system bandwidth between the UE and the base station comprises the anchor carrier and at least one supplementary carrier, • acquiring , on the anchor carrier, system information, wherein the system information comprises information about identities and frequency locations of the carriers, • selecting one of the carriers according to an identity of the UE and the identities of the carriers, and • accessing on the selected carrier, the base station, and communicating with the base station.
An aqueous dispersion mixture comprising; an aqueous dispersion (A) that comprises a crystalline polyolefin (a) as a dispersoid thereof; an aqueous dispersion (B) that comprises a crystalline polyurethane (b) as a dispersoid thereof; and an aqueous dispersion (C) that comprises a non-crystalline polyurethane (c) as a dispersoid thereof, wherein the crystalline polyolefin (a) is a non-chlorine modified polyolefin, wherein the crystalline polyurethane (b) has a crystal melting heat amount equal to or larger than 3 J/g measured by differential scanning calorimetry, wherein the non-crystalline polyurethane (c) has a crystal melting heat amount smaller than 3 J/g measured by differential scanning calorimetry, and wherein the aqueous dispersion (B) comprises a non-volatile content of 30 parts by mass to 100 parts by mass and the aqueous dispersion (C) comprises a non-volatile content of 20 parts by mass to 80 parts by mass, relative to a non-volatile content of 100 parts by mass of the aqueous dispersion (A), wherein the polyolefin (a) comprises a modified functional group unit originated from an unsaturated compound comprising the modified functional group by an amount of equal to or larger than 0.1 part by mass relative to 100 parts by mass of the olefin unit.
Polymer concrete mixture for the preparation of a polymer concrete part , wherein the polymer concrete mixture consists of 78 to 82 percent by volume of a filler mixture and 18 to 22 percent by volume of a resin mixture consisting of at least one resin, a hardener or hardener mixture and an accelerator or accelerator mixture, wherein the resin mixture comprises 1.5 to 2 percent by volume hardener or hardener mixture and 0.8 to 1.4 percent by volume accelerator or accelerator mixture and wherein the filler mixture is formed from 77 to 83 percent by volume dried sludge to which 17 to 23 percent by volume quartz flour has been added, wherein the sludge has been completely dried.
An apparatus comprising means for: allocating , to at least one device in inactive mode, a secondary frequency resource independently from scheduling of a scheduled system; transmitting an indication of the secondary frequency resource in a system information message or via a dedicated signaling; and transmitting , to the at least one device in inactive mode, a wake-up signal in a dedicated carrier of the secondary frequency resource to control reception of scheduled frequency resources, wherein the wake-up signal is transmitted in selected transmission time intervals, and the wake-up signal activates the at least one device in inactive mode. allocating , to at least one device in inactive mode, a secondary frequency resource independently from scheduling of a scheduled system; transmitting an indication of the secondary frequency resource in a system information message or via a dedicated signaling; and transmitting , to the at least one device in inactive mode, a wake-up signal in a dedicated carrier of the secondary frequency resource to control reception of scheduled frequency resources, wherein the wake-up signal is transmitted in selected transmission time intervals, and the wake-up signal activates the at least one device in inactive mode.
A method for generating a solid antigen/carrier protein gel for immunohistochemical (IHC) staining, the method comprising: (a) mixing a purified antigen with a liquid solution comprising a carrier protein to produce an antigen/carrier protein liquid solution; and (b) heating the antigen/carrier protein liquid solution to form the solid antigen/carrier protein gel, wherein the antigen is a polypeptide antigen, the carrier protein consists of a serum albumin protein, and the antigen/carrier protein liquid solution includes a cross-linking agent. (a) mixing a purified antigen with a liquid solution comprising a carrier protein to produce an antigen/carrier protein liquid solution; and (b) heating the antigen/carrier protein liquid solution to form the solid antigen/carrier protein gel,
A network node , comprising: processing circuitry configured to: assign a plurality of wireless devices respective sounding reference signal, SRS, sequences of a common set of SRS sequences, the common set of SRS sequences being shared among a first radio access technology, RAT, and a second RAT; and receive SRS sequences according to the assignment of the respective SRS sequences of the common set of SRS sequences; wherein the common set of sequences are partitioned: equally among first RAT wireless devices and second RAT wireless devices , or based at least on a fraction of deployments of first RAT wireless devices and second RAT wireless devices , or based at least on a ratio of bandwidth parts , BWPs, associated with second RAT wireless devices to a total bandwidth of shared spectrum. processing circuitry configured to: assign a plurality of wireless devices respective sounding reference signal, SRS, sequences of a common set of SRS sequences, the common set of SRS sequences being shared among a first radio access technology, RAT, and a second RAT; and receive SRS sequences according to the assignment of the respective SRS sequences of the common set of SRS sequences; assign a plurality of wireless devices respective sounding reference signal, SRS, sequences of a common set of SRS sequences, the common set of SRS sequences being shared among a first radio access technology, RAT, and a second RAT; and receive SRS sequences according to the assignment of the respective SRS sequences of the common set of SRS sequences; wherein the common set of sequences are partitioned: equally among first RAT wireless devices and second RAT wireless devices , or based at least on a fraction of deployments of first RAT wireless devices and second RAT wireless devices , or based at least on a ratio of bandwidth parts , BWPs, associated with second RAT wireless devices to a total bandwidth of shared spectrum. equally among first RAT wireless devices and second RAT wireless devices , or based at least on a fraction of deployments of first RAT wireless devices and second RAT wireless devices , or based at least on a ratio of bandwidth parts , BWPs, associated with second RAT wireless devices to a total bandwidth of shared spectrum.
A position encoder for sensing the relative rotary position of first and second parts about a rotation axis , the position encoder comprising a follower constrained to move on a first track fast with the first part and on a second track fast with the second part , the first track being linear and the second track comprising a plurality of circular arcs and at least one transition section connecting one of the circular arcs to another, the tracks being arranged so as to convert relative rotation of the parts into linear motion of the follower , wherein the second track is generally spiral, each circular arc is of constant radius about the rotation axis and the first track is perpendicular to the rotation axis , the position encoder further comprising a sensor for sensing the position of the follower in the first track.
Helmet comprising: - a cap ; - a visor configured to be coupled in a removable manner to said cap in at least one coupling region of said cap about an axis of rotation (X); wherein said helmet further comprises a covering device able to cover said coupling region and comprising a constraining or coupling portion and a head portion ; and wherein said covering device is configured to be coupled in said coupling region in a removable manner to said cap by means of said constraining or coupling portion and to assume at least a first constraining or coupling position and a second constraining or coupling position; and wherein in said first constraining position said head portion is constrained in a first spatial relationship with respect to said cap and wherein in said second constraining position said head portion is constrained in a second spatial relationship with respect to said cap ; and wherein in said second spatial relationship said head portion is closer to said cap along said axis of rotation (X) than in said first spatial relationship; and wherein said covering device is configured to be uncoupled from or coupled in a removable manner to said cap by means of a rototranslational movement; and characterized in that said head portion of said covering device is configured so that it can be deformed in an elastic manner to allow a translation of said constraining or coupling portion during said rototranslational movement. - a cap ; - a visor configured to be coupled in a removable manner to said cap in at least one coupling region of said cap about an axis of rotation (X); wherein said helmet further comprises a covering device able to cover said coupling region and comprising a constraining or coupling portion and a head portion ; and wherein said covering device is configured to be coupled in said coupling region in a removable manner to said cap by means of said constraining or coupling portion and to assume at least a first constraining or coupling position and a second constraining or coupling position; and wherein in said first constraining position said head portion is constrained in a first spatial relationship with respect to said cap and wherein in said second constraining position said head portion is constrained in a second spatial relationship with respect to said cap ; and wherein in said second spatial relationship said head portion is closer to said cap along said axis of rotation (X) than in said first spatial relationship; and wherein said covering device is configured to be uncoupled from or coupled in a removable manner to said cap by means of a rototranslational movement; and characterized in that said head portion of said covering device is configured so that it can be deformed in an elastic manner to allow a translation of said constraining or coupling portion during said rototranslational movement.