mhurhangee/patent-ind-claim-en huggingface dataset:
A cover of an inflatable airbag assembly to be mounted at a seat of a vehicle , the cover comprising: a mounting panel to mount the inflatable airbag assembly at a seat frame of the seat of the vehicle ; and a lateral panel coupled to the mounting panel , the lateral panel to be disposed facing an outer lateral surface of the seat of the vehicle and to cover a void in the seat , the void to accommodate an inflatable airbag in a packaged state, the lateral panel providing an outward facing surface comprising a material with a degree of rigidity and a degree of elasticity, the cover being configured to support the inflatable airbag in the packaged state within the seat and the lateral panel is configured to at least partially articulate outwardly away from the mounting panel to allow the inflatable airbag to deploy from the void in the seat , characterized in that the cover further comprises a closure to releasably secure the inflatable airbag to at least one of the lateral panel and the mounting panel , the closure being defined by a panel having a shape generally like a "U", and, in the packaged state, the inflatable airbag assembly is only partially covered by the cover . a mounting panel to mount the inflatable airbag assembly at a seat frame of the seat of the vehicle ; and a lateral panel coupled to the mounting panel , the lateral panel to be disposed facing an outer lateral surface of the seat of the vehicle and to cover a void in the seat , the void to accommodate an inflatable airbag in a packaged state, the lateral panel providing an outward facing surface comprising a material with a degree of rigidity and a degree of elasticity, the cover being configured to support the inflatable airbag in the packaged state within the seat and the lateral panel is configured to at least partially articulate outwardly away from the mounting panel to allow the inflatable airbag to deploy from the void in the seat , characterized in that the cover further comprises a closure to releasably secure the inflatable airbag to at least one of the lateral panel and the mounting panel , the closure being defined by a panel having a shape generally like a "U", and, in the packaged state, the inflatable airbag assembly is only partially covered by the cover .
Method for producing a toothing of a workpiece gear by means of skiving, wherein a cutting wheel which is seated on a first tool spindle and has cutting teeth is rotationally driven about a tool spindle axis , and the cutting teeth engage into the workpiece gear , which is carried by a workpiece spindle and is rotationally driven about a workpiece axis which is aligned at an axial intersection angle (α) to the tool spindle axis , in a machining manner during an advance (V) in the extension direction of the teeth of the toothing, wherein the tooth gaps between left and right tooth flanks of the teeth of the toothing are made in multiple successive rough cuts, and subsequently only the left tooth flanks are machined in a first finishing cut and only the right tooth flanks are machined in a second finishing cut, characterised in that the tooth gaps between the left and right tooth flanks of the teeth of the toothing are deepened during the multiple successive rough cuts by changing the axial clearance between the tool spindle rotational axis and the workpiece spindle rotational axis and in that the first and second finishing cuts are carried out by two different cutting wheels , wherein only the left tooth flanks are machined with left-hand cutting edges of the first cutting teeth of the first cutting wheel and only the right tooth flanks are machined with the right-hand cutting edges of the second cutting teeth of the second cutting wheel , and the skiving motion for both finishing cuts can be carried out with a machining point which migrates from the tooth tip to the tooth root .
A calibration method for calibrating a manufacturing device for additively producing a three-dimensional object by applying layer by layer and selectively solidifying a building material , preferably a powder, within a build area in a working plane , wherein the manufacturing device comprises at least two scanning units , each of which is capable of directing a beam to different target points in the working plane , preferably in the build area , which are located within a scanning region assigned to the respective scanning unit , wherein the scanning regions region of the at least two scanning units overlap in an overlap area , wherein at least a first of the at least two scanning units is assigned a first monitoring unit whose monitoring region (Ua) extends to a target point of the first scanning unit and its proximity, wherein a change of a position of the monitoring region (Ua) is carried out as a function of a change of a position of the target point, wherein the calibration method comprises the following steps: directing the monitoring region (Ua) of the first monitoring unit to a region in the overlap area without a beam emanating from the first scanning unit , irradiating at least a portion of the monitoring region (Ua) of the first monitoring unit with a beam via a second of the at least two scanning units , and evaluating an output signal of the first monitoring unit . directing the monitoring region (Ua) of the first monitoring unit to a region in the overlap area without a beam emanating from the first scanning unit , irradiating at least a portion of the monitoring region (Ua) of the first monitoring unit with a beam via a second of the at least two scanning units , and evaluating an output signal of the first monitoring unit .
Processing tool of a sheet processing machine , wherein at least one adjusting means is arranged so as to change the tool geometry of the processing tool , wherein the at least one adjusting means is liquid at the time of application, wherein the at least one adjusting means is arranged in a manner applied to a rear side of the processing tool and/or to a side of the processing tool facing away from a processing contour, characterized in that , at the time of application, the at least one adjusting means is a dispersion comprising a disperse phase and a dispersion medium, and in that the disperse phase comprises particles and/or pigments.
A curved flow channel with a built-in lattice structure, the curved flow channel comprising: a curved section; and a spatial lattice structure disposed inside the curved section and at an outer inside wall of the curved section away from a center of curvature of the curved section, the lattice structure not extending across a complete cross-section of the curved section, a cross-sectional area of the lattice structure being equal to or less than a half of a cross-sectional area of the curved section of the curved flow channel , and the lattice structure comprising a plurality of unit lattices. a curved section; and a spatial lattice structure disposed inside the curved section and at an outer inside wall of the curved section away from a center of curvature of the curved section, the lattice structure not extending across a complete cross-section of the curved section, a cross-sectional area of the lattice structure being equal to or less than a half of a cross-sectional area of the curved section of the curved flow channel , and the lattice structure comprising a plurality of unit lattices.
Method for operating a washing machine having a tub , a drum for receiving items of laundry , a drive motor for the drum , an electrochemical sensor in the tub for measuring an electrochemical signal as a function of a composition of an aqueous liquid in the tub , and a control facility , wherein the following steps are carried out: (a) providing an aqueous liquid containing detergent in the tub ; (b) rotating the drum according to a predetermined movement program; (c) terminating a rotational movement of the drum and allowing the aqueous liquid containing detergent to rest until a predetermined calm state of the aqueous liquid containing detergent is reached; and (d) measuring the concentration c ten of a detergent in the aqueous liquid containing detergent and provided in step (a) by recording and evaluating electrochemical signals of the electrochemical sensor using an association between electrochemical signals and detergent concentrations stored in the control facility , wherein a current voltage curve is recorded with the electrochemical sensor as a measure of a calm state in step (c) and is evaluated in respect of a proportion of electricity not conditioned by diffusion with respect to the electrochemical sensor , and wherein the proportion of electricity conditioned by diffusion with respect to the electrochemical sensor comprises a contribution of convection. (a) providing an aqueous liquid containing detergent in the tub ; (b) rotating the drum according to a predetermined movement program; (c) terminating a rotational movement of the drum and allowing the aqueous liquid containing detergent to rest until a predetermined calm state of the aqueous liquid containing detergent is reached; and (d) measuring the concentration c ten of a detergent in the aqueous liquid containing detergent and provided in step (a) by recording and evaluating electrochemical signals of the electrochemical sensor using an association between electrochemical signals and detergent concentrations stored in the control facility , wherein a current voltage curve is recorded with the electrochemical sensor as a measure of a calm state in step (c) and is evaluated in respect of a proportion of electricity not conditioned by diffusion with respect to the electrochemical sensor , and wherein the proportion of electricity conditioned by diffusion with respect to the electrochemical sensor comprises a contribution of convection.
A bicycle helmet with an automatic braking and steering indicator which has a helmet body , on the respective front and rear sides of which a left and a right direction indicator as well as a brake light are provided, wherein the bicycle helmet comprises a control module to which the direction indicators and the brake light are electrically coupled, a wireless receiving module which is coupled to the control module , and a wireless remote control module which communicates with the wireless receiving module by radio, wherein a brake check unit and a manual control unit are electrically coupled to the wireless remote control module , wherein the brake check unit , in the event of the actuation of a bicycle brake, and the manual control unit , in the event of the actuation of an direction indicator switch, generate a respective signal which is transmitted to the bicycle helmet via the wireless remote control module in order to activate the direction indicators , characterized in that the bicycle helmet comprises a gyroscope which is electrically connected to the control module , in that the control module contains a control index number which is larger than or equal to two and can be preferably predetermined by the user as desired, and in that the right or left direction indicator and / or the brake light is activated if a number of head movements of the cyclist in one direction within a certain time period corresponds to the control index number.
A method, comprising: receiving, in a master memory controller within a computing node , a request from a processor to access memory; routing a request corresponding to the request from the processor across a system fabric to a slave memory controller within a remote memory node comprising a collection of internal memory devices ; and the slave memory controller returning a response with error message to the master memory controller ; characterized in that the master memory controller isolates remote memory node errors from the processor by filtering error messages received from the remote memory node , the master memory controller receiving the response with error message from the slave memory controller and generating a response to the processor , wherein the generated response is different to the response returned to the master memory controller by the slave memory controller and signals that the error is in the remote memory. receiving, in a master memory controller within a computing node , a request from a processor to access memory; routing a request corresponding to the request from the processor across a system fabric to a slave memory controller within a remote memory node comprising a collection of internal memory devices ; and the slave memory controller returning a response with error message to the master memory controller ; characterized in that the master memory controller isolates remote memory node errors from the processor by filtering error messages received from the remote memory node , the master memory controller receiving the response with error message from the slave memory controller and generating a response to the processor , wherein the generated response is different to the response returned to the master memory controller by the slave memory controller and signals that the error is in the remote memory.
Device for supplying pressurized fluid, in particular pressurized gas, comprising a first valve accommodating an internal fluid circuit , the device having a second valve comprising an internal circuit , the second valve forming a separate physical entity from the first valve , the first valve and the second valve comprising respective coupling members that form a male/female quick-connection system for removably connecting the second valve to the first valve , the internal circuits comprising a set of control valves for allowing or preventing the flow of the fluid towards an outlet of the device when the second valve is coupled to the first valve via the quick-connection system, the device comprising at least one manually actuable movable control member for controlling the set of control valves, the control member being movable between a first, rest position, in which the flow of fluid towards the outlet is prevented, and a second, active position, in which the flow of fluid towards the outlet is allowed, characterized in that the quick-connection system comprises a member for locking/unlocking the second valve on/from the first valve , the locking/unlocking member being movable between a first, unlocking position, when the quick connection between the second valve and the first valve has not been established, or allowing separation of the second valve and the first valve when the quick connection has been established between the second valve and the first valve , and a second, locking position preventing separation of the second valve and the first valve when the quick connection has been established between these latter, and in that , in its second, active position, the control member blocks the locking/unlocking member in its second position, so as to prevent the second valve and the first valve from being separated, and in that , in its first, rest position, the control member does not block the locking/unlocking member in its second position, so as to allow it to move towards its first position and thus to allow the second valve and the first valve to be separated.
An in vitro method for designing a customized therapy for a subject with triple negative (including basal-like) breast cancer with bone metastasis which comprises i) quantifying the c-MAF gene expression level or c-MAF gene amplification in a bone metastatic sample of said subject and ii) comparing the expression level obtained in step (i) with a reference value, or the amplification obtained in step (i) with a reference gene copy number, wherein - if the c-MAF gene expression level is increased with respect to said reference value, or the c-MAF gene amplification is increased with respect to said reference gene copy number, then said subject is susceptible to receive a therapy aiming to prevent and/or treat the bone degradation, wherein the therapy aiming to prevent and/or treat the bone degradation is a bisphosphonate, wherein the bisphosphonate is zoledronic acid or clodronate or - if the c-MAF gene expression level is not increased with respect to said reference value, or the c-MAF gene amplification is not increased with respect to said reference gene copy number, then said subject is not susceptible to receive a therapy aiming to prevent and/or treat the bone degradation, wherein the therapy aiming to prevent and/or treat the bone degradation is a bisphosphonate, wherein the bisphosphonate is zoledronic acid or clodronate. i) quantifying the c-MAF gene expression level or c-MAF gene amplification in a bone metastatic sample of said subject and ii) comparing the expression level obtained in step (i) with a reference value, or the amplification obtained in step (i) with a reference gene copy number, - if the c-MAF gene expression level is increased with respect to said reference value, or the c-MAF gene amplification is increased with respect to said reference gene copy number, then said subject is susceptible to receive a therapy aiming to prevent and/or treat the bone degradation, wherein the therapy aiming to prevent and/or treat the bone degradation is a bisphosphonate, wherein the bisphosphonate is zoledronic acid or clodronate or - if the c-MAF gene expression level is not increased with respect to said reference value, or the c-MAF gene amplification is not increased with respect to said reference gene copy number, then said subject is not susceptible to receive a therapy aiming to prevent and/or treat the bone degradation, wherein the therapy aiming to prevent and/or treat the bone degradation is a bisphosphonate, wherein the bisphosphonate is zoledronic acid or clodronate.
A method of producing an insulated structure , the method comprising: introducing a raw material into a feed hopper ; compacting the raw material with at least one roller ; directing the raw material that has been compacted to a crusher ; directing the raw material that has been crushed to a granulator ; collecting the raw material that has been compacted and exposed to both the crusher and the granulator as a core material precursor ; characterized by filtering the core material precursor with a filter member ; wherein a portion of the core material precursor that remains on the filter member represents a core material for use in the insulated structure . introducing a raw material into a feed hopper ; compacting the raw material with at least one roller ; directing the raw material that has been compacted to a crusher ; directing the raw material that has been crushed to a granulator ; collecting the raw material that has been compacted and exposed to both the crusher and the granulator as a core material precursor ; characterized by filtering the core material precursor with a filter member ; wherein a portion of the core material precursor that remains on the filter member represents a core material for use in the insulated structure .
A fiber optic cable assembly comprising an elongate housing ; a plurality of fiber optic cables placed inside the housing and extending longitudinally; a relatively soft, sound-absorbing acoustic isolating material placed inside the housing and extending longitudinally, the acoustic isolating material comprising a plurality of outwardly radially extending arms extending from a center of the housing towards a circumference of the housing, the plurality of arms dividing a space inside the housing into a plurality of acoustically isolated sections, each acoustically isolated section extending longitudinally, each acoustically isolated section including at least one of the plurality of fiber optic cables, each acoustically isolated section acoustically insulated from remaining sections of the plurality of acoustically isolated sections; and a relatively hard acoustic reflective material covering a surfac of the acoustic isolating material of each acoustically isolated section . an elongate housing ; a plurality of fiber optic cables placed inside the housing and extending longitudinally; a relatively soft, sound-absorbing acoustic isolating material placed inside the housing and extending longitudinally, the acoustic isolating material comprising a plurality of outwardly radially extending arms extending from a center of the housing towards a circumference of the housing, the plurality of arms dividing a space inside the housing into a plurality of acoustically isolated sections, each acoustically isolated section extending longitudinally, each acoustically isolated section including at least one of the plurality of fiber optic cables, each acoustically isolated section acoustically insulated from remaining sections of the plurality of acoustically isolated sections; and a relatively hard acoustic reflective material covering a surfac of the acoustic isolating material of each acoustically isolated section .
A vehicular communication system , comprising: one or more network devices configured for operable coupling with a vehicle system, the one or more network devices configured to establish a secured network segment including a plurality of secure zones on the vehicle system, the secure zones each configured for network linking of a respective plurality of node devices; wherein the one or more network devices are further configured to establish one or more single points of security each associated with a respective one of the plurality of secure zones on the vehicle system, for providing communication security for the secure zones ; characterized in that each secure zone comprises a network zone to which predefined authorized users have access and unauthorized users do not have access; the one or more network devices are further configured to establish a secure wireless communication tunnel and; a public network segment contains a wireless channel on the vehicle system configured to wirelessly transport data traffic between the secure zones . one or more network devices configured for operable coupling with a vehicle system, the one or more network devices configured to establish a secured network segment including a plurality of secure zones on the vehicle system, the secure zones each configured for network linking of a respective plurality of node devices; wherein the one or more network devices are further configured to establish one or more single points of security each associated with a respective one of the plurality of secure zones on the vehicle system, for providing communication security for the secure zones ; characterized in that each secure zone comprises a network zone to which predefined authorized users have access and unauthorized users do not have access; the one or more network devices are further configured to establish a secure wireless communication tunnel and; a public network segment contains a wireless channel on the vehicle system configured to wirelessly transport data traffic between the secure zones .
A system for forming a tibial implant configured for attachment to a tibia in a knee arthroplasty, the system comprising: one or more baseplates having a lateral portion and a medial portion oriented relative to an anteroposterior axis, each of the lateral portion and the medial portion having a distal surface configured to interface with a lateral resected proximal surface of a tibia and a medial resected proximal surface of a tibia respectively; characterized in that the system further comprises: a plurality of fixation members each of the plurality of fixation members being configured to couple to the baseplate and extend both distally and medially from the baseplate such that each fixation member of the plurality of fixation members is oriented at an acute angle (θ,θ 1 ,θ 2 ,δ 1 ,δ 2 ) relative to the distal surface of the medial portion, and wherein each of the plurality of fixation members is configured to differ from others of the plurality of fixation members such that the acute angle formed by each of the plurality of fixation members, when mounted to the baseplate, differs in degree.