mhurhangee/patent-ind-claim-en huggingface dataset:
A system for controlling compounding in one or more brake actuators of a vehicle, comprising: a first valve (114 or 120) configured to control a first fluid pressure in a parking brake chamber of a brake actuator that acts against a spring force applied by a spring of the brake actuator to a pushrod of the brake actuator ; a second valve (102 or 104) configured to control a second fluid pressure in a service brake chamber of the brake actuator that applies a fluid force to the pushrod of the brake actuator; and, a controller configured to receive a first fluid pressure signal indicative of the first fluid pressure; characterized in that the controller is further configured to receive a second fluid pressure signal indicative of the second fluid pressure; determine a total brake actuator force applied to the pushrod of the brake actuator responsive to the first fluid pressure signal and second fluid pressure signal; and, control , responsive to the total brake actuator force, at least one of the first valve (114 or 120) and the second valve (102 or 104) to adjust a corresponding one of the first fluid pressure and the second fluid pressure and thereby obtain an adjusted total brake actuator force. a first valve (114 or 120) configured to control a first fluid pressure in a parking brake chamber of a brake actuator that acts against a spring force applied by a spring of the brake actuator to a pushrod of the brake actuator ; a second valve (102 or 104) configured to control a second fluid pressure in a service brake chamber of the brake actuator that applies a fluid force to the pushrod of the brake actuator; and, a controller configured to receive a first fluid pressure signal indicative of the first fluid pressure; receive a second fluid pressure signal indicative of the second fluid pressure; determine a total brake actuator force applied to the pushrod of the brake actuator responsive to the first fluid pressure signal and second fluid pressure signal; and, control , responsive to the total brake actuator force, at least one of the first valve (114 or 120) and the second valve (102 or 104) to adjust a corresponding one of the first fluid pressure and the second fluid pressure and thereby obtain an adjusted total brake actuator force.
A circuit breaker comprising a single pole breaking unit including a housing , a movable contact provided in the housing , a fixed contact provided in the housing and contacting or separated from the movable contact , an extinction unit provided in the housing and configured to extinguish an arc generated when the movable contact and the fixed contact are separated, a detection mechanism unit to detect a fault current, and at least one arc gas discharge passage (113, 113', 113", 113"') that is formed in the housing to allow an arc gas generated when the movable contact and the fixed contact are separated to be discharged, characterized in that : the at least one arc gas discharge passage includes an inlet hole (113a-1, 113a'-1, 113"-1, 113"'-1) that is formed at the extinction unit to allow the arc gas to be introduced and a discharge hole (113c-1, 113d'-1, 113d"-1, 113c"'-1) that is formed at the detection mechanism unit to allow the arc gas to be discharged, and the circuit breaker is tripped as the arc gas discharged through the discharge hole (113c-1, 113d'-1, 113d"-1, 113c"'-1) rotates an armature of the detection mechanism unit. the at least one arc gas discharge passage includes an inlet hole (113a-1, 113a'-1, 113"-1, 113"'-1) that is formed at the extinction unit to allow the arc gas to be introduced and a discharge hole (113c-1, 113d'-1, 113d"-1, 113c"'-1) that is formed at the detection mechanism unit to allow the arc gas to be discharged, and the circuit breaker is tripped as the arc gas discharged through the discharge hole (113c-1, 113d'-1, 113d"-1, 113c"'-1) rotates an armature of the detection mechanism unit.
Method for composing a window or door profile starting from two half-shells in the form of profiles made from a metal such as aluminium or steel which are connected to each other by an insulator in the form of a profile made from a hard thermally insulating material, whereby the half-shells are provided with an undercut groove delimited by at least one elastically bendable lip and whereby the longitudinal edges of the insulator are clamped in the undercut grooves of the half-shells , wherein the method starts from a substantially flat slat-shaped insulator with longitudinal edges , the thickness of which is slightly greater than the width of the opening of undercut grooves , whereby the method comprises the following steps: - positioning the half-shells at a distance from each other and with the undercut grooves opposite each other and with their openings facing each other; - positioning the longitudinal edges of the insulator in line with and facing the grooves of the half-shells ; - laterally pressing together the half-shells under pressure for the elastic clamping of the longitudinal edges of the insulator in the grooves by an elastic deformation of the at least one elastically bendable lip; characterised by the step of - supporting the insulator on both sides of the insulator to prevent buckling of the insulator when pressing the half-shells . the method starts from a substantially flat slat-shaped insulator with longitudinal edges , the thickness of which is slightly greater than the width of the opening of undercut grooves , whereby the method comprises the following steps: - positioning the half-shells at a distance from each other and with the undercut grooves opposite each other and with their openings facing each other; - positioning the longitudinal edges of the insulator in line with and facing the grooves of the half-shells ; - laterally pressing together the half-shells under pressure for the elastic clamping of the longitudinal edges of the insulator in the grooves by an elastic deformation of the at least one elastically bendable lip; - positioning the half-shells at a distance from each other and with the undercut grooves opposite each other and with their openings facing each other; - positioning the longitudinal edges of the insulator in line with and facing the grooves of the half-shells ; - laterally pressing together the half-shells under pressure for the elastic clamping of the longitudinal edges of the insulator in the grooves by an elastic deformation of the at least one elastically bendable lip; characterised by the step of - supporting the insulator on both sides of the insulator to prevent buckling of the insulator when pressing the half-shells . - supporting the insulator on both sides of the insulator to prevent buckling of the insulator when pressing the half-shells .
A motor control device, comprising: a motor case including a motor arranged on a lower side; a housing , which is provided to have a power supply connector mounted thereon and cover an upper portion of the motor case ; and a control unit , which is arranged on a side opposite to an output side on an output shaft of the motor in a space formed by the motor case and the housing , wherein the control unit includes: a filter portion , which is arranged in an upper portion of the control unit and is connected to the power supply connector ; a control board , which is arranged below the filter portion , the lower side being a side of the output shaft of the motor , the control board having mounted thereon circuit components configured to supply an electric current to the motor ; and a shield plate , which is arranged between the filter portion and the control board , characterized in that the shield plate is grounded to the motor case , and in that the motor control device further comprises an outer circumferential wall , which is circumferentially formed around an outer circumference of the shield plate , the outer circumferential wall and a wall portion of the motor case having a clearance therebetween, the clearance having a waterproofing member arranged therein, the waterproofing member having an outer edge portion of the housing inserted therein. a motor case including a motor arranged on a lower side; a housing , which is provided to have a power supply connector mounted thereon and cover an upper portion of the motor case ; and a control unit , which is arranged on a side opposite to an output side on an output shaft of the motor in a space formed by the motor case and the housing , wherein the control unit includes: a filter portion , which is arranged in an upper portion of the control unit and is connected to the power supply connector ; a control board , which is arranged below the filter portion , the lower side being a side of the output shaft of the motor , the control board having mounted thereon circuit components configured to supply an electric current to the motor ; and a shield plate , which is arranged between the filter portion and the control board , a filter portion , which is arranged in an upper portion of the control unit and is connected to the power supply connector ; a control board , which is arranged below the filter portion , the lower side being a side of the output shaft of the motor , the control board having mounted thereon circuit components configured to supply an electric current to the motor ; and a shield plate , which is arranged between the filter portion and the control board , characterized in that the shield plate is grounded to the motor case , and in that the motor control device further comprises an outer circumferential wall , which is circumferentially formed around an outer circumference of the shield plate , the outer circumferential wall and a wall portion of the motor case having a clearance therebetween, the clearance having a waterproofing member arranged therein, the waterproofing member having an outer edge portion of the housing inserted therein.
A method for manufacturing a three-dimensional object with an additive manufacturing system, comprising: - providing a part material in the form of microparticles, comprising a polymeric component comprising: a) from 55 to 95 wt.% of at least one poly(aryl ether ketone) (PAEK) having a weight average molecular weight (Mw) ranging from 75,000 to 150,000 g/mol, as determined by gel permeation chromatography (GPC) using phenol and trichlorobenzene (1:1) at 160°C, with polystyrene standards, and b) from 5 to 45 wt.% of at least one poly(aryl ether sulfone) (PAES), based on the total weight of the polymeric component of the part material, and - printing layers of the three-dimensional object from the part material. - providing a part material in the form of microparticles, comprising a polymeric component comprising: a) from 55 to 95 wt.% of at least one poly(aryl ether ketone) (PAEK) having a weight average molecular weight (Mw) ranging from 75,000 to 150,000 g/mol, as determined by gel permeation chromatography (GPC) using phenol and trichlorobenzene (1:1) at 160°C, with polystyrene standards, and b) from 5 to 45 wt.% of at least one poly(aryl ether sulfone) (PAES), based on the total weight of the polymeric component of the part material, and a) from 55 to 95 wt.% of at least one poly(aryl ether ketone) (PAEK) having a weight average molecular weight (Mw) ranging from 75,000 to 150,000 g/mol, as determined by gel permeation chromatography (GPC) using phenol and trichlorobenzene (1:1) at 160°C, with polystyrene standards, and b) from 5 to 45 wt.% of at least one poly(aryl ether sulfone) (PAES), based on the total weight of the polymeric component of the part material, and - printing layers of the three-dimensional object from the part material.
A mask for the activity of surface snorkelling, comprising a breathing tube , a rigid frame having a connection terminal for removably connecting said breathing tube , a transparent visor , a soft face shield applicable so as to be tightly sealed against the user's face and having a diaphragm which delimits an upper viewing chamber shaped so as to contain the user's eyes and a lower breathing chamber shaped so as to contain the user's nose and mouth, and a snap locking means for locking said breathing tube to said terminal , comprising an oscillatable lever provided with a hooking tooth engageable in a hooking seat provided on said terminal , wherein said oscillatable lever is fashioned in a separate body removably fixed to said breathing tube and having a limiter for limiting the oscillation stroke of said oscillatable lever , characterised in that said separate body has an outer frame delimiting a compartment for positioning said oscillatable lever , and in that it has at least two mutually aligned bridges (150 A, 150B) which extend towards the inside of said positioning compartment and connect said oscillatable lever to said frame , said stroke limiter being defined by a wall of said outer frame positioned along the oscillation trajectory of said oscillatable lever .
Application device for the application in series of a coating agent to surfaces of workpieces, in particular of motor vehicle bodies and/or add-on parts thereof, having a nozzle printhead which contains a plurality of nozzles (D1, D2; 40) arranged side by side which apply the coating agent to the surface (F) to be coated as continuous jets or individual drops, wherein the nozzle printhead is arranged on a multi-axis coating robot having six or more rotary axes which moves the nozzle printhead over the surface to be coated, and having a supply unit containing the coating agent, wherein the coating agent consists of at least two components which are to be mixed together, which components comprise at least one material component and at least one curing agent component which reacts with the material component for the curing thereof, and wherein there is provided a flushing apparatus for the nozzle printhead, which (a) is formed by at least one flushing medium line which leads into the application device and/or into the nozzle printhead and to which the nozzles are connected or can be connected, and/or (b) is formed by an apparatus arranged externally in the vicinity of the multi-axis coating robot which moves the nozzle printhead, characterised in that the nozzle printhead has at least two separate supply lines for the components to be mixed, which supply lines are provided to jointly supply the nozzles (D1, D2; 40) with the coating agent or the components thereof, and the components remain separate at least until they enter the nozzle printhead . (a) is formed by at least one flushing medium line which leads into the application device and/or into the nozzle printhead and to which the nozzles are connected or can be connected, and/or (b) is formed by an apparatus arranged externally in the vicinity of the multi-axis coating robot which moves the nozzle printhead,
A method of coordinating multi-cells comprising a server , the method comprising: transmitting, by a reference user equipment (UE) , first reference signals to a plurality of evolved NodeBs (eNBs) via uplink channels of the plurality of eNBs ; transmitting, by the eNBs , a plurality of uplink channel information estimated according to the first reference signals to the server ; performing uplink channel estimations for the eNBs according to the plurality of uplink channel information, and estimating carrier frequency offsets among the plurality of eNBs based on the uplink channel estimations for the eNBs at different time; transmitting second reference signals from the plurality of eNBs to the reference UE ; transmitting, by the reference UE , a plurality of downlink channel information estimated according to the second reference signals to the server ; and performing, by the server , a time-varying channel calibration to the plurality of eNBs , wherein the time-varying channel calibration is calculated from a ratio of the plurality of uplink channel compensated by the carrier frequency offsets and the plurality of downlink channel information compensated by the carrier frequency offsets. transmitting, by a reference user equipment (UE) , first reference signals to a plurality of evolved NodeBs (eNBs) via uplink channels of the plurality of eNBs ; transmitting, by the eNBs , a plurality of uplink channel information estimated according to the first reference signals to the server ; performing uplink channel estimations for the eNBs according to the plurality of uplink channel information, and estimating carrier frequency offsets among the plurality of eNBs based on the uplink channel estimations for the eNBs at different time; transmitting second reference signals from the plurality of eNBs to the reference UE ; transmitting, by the reference UE , a plurality of downlink channel information estimated according to the second reference signals to the server ; and performing, by the server , a time-varying channel calibration to the plurality of eNBs , wherein the time-varying channel calibration is calculated from a ratio of the plurality of uplink channel compensated by the carrier frequency offsets and the plurality of downlink channel information compensated by the carrier frequency offsets.
An information processing device for object recognition comprising: a setting unit configured to set an object region, for image information obtained by capturing an imaging range of an imaging unit , the object region corresponding to an object existing in the imaging range; a luminance information acquiring unit configured to acquire luminance information indicating brightness of subjects in the imaging range, wherein the setting unit sets the object region based on the luminance information, characterized by a correcting unit configured to set a luminance detection region which is a region from a lower end position of the object region to an upper position at a predetermined vertical distance in pixels from the lower end position of the object, to calculate average luminance in the luminance detection region containing the object for each of pixel row in order from the lowest to the highest pixel row of the luminance detection region , and to correct the lower end position of the object region so as to shift the lower end position up to a position of a pixel row in which the row average luminance is smaller than a predetermined value to include a shadow formed under the object but exclude the road marking underneath the lowermost portion of the object. a setting unit configured to set an object region, for image information obtained by capturing an imaging range of an imaging unit , the object region corresponding to an object existing in the imaging range; a luminance information acquiring unit configured to acquire luminance information indicating brightness of subjects in the imaging range, wherein the setting unit sets the object region based on the luminance information, characterized by a correcting unit configured to set a luminance detection region which is a region from a lower end position of the object region to an upper position at a predetermined vertical distance in pixels from the lower end position of the object, to calculate average luminance in the luminance detection region containing the object for each of pixel row in order from the lowest to the highest pixel row of the luminance detection region , and to correct the lower end position of the object region so as to shift the lower end position up to a position of a pixel row in which the row average luminance is smaller than a predetermined value to include a shadow formed under the object but exclude the road marking underneath the lowermost portion of the object.
A yarn winder comprising: a base ; a bobbin holder which is rotatably supported by the base , which extends along an axial direction which is along the horizontal direction, and to which bobbins (B), which are capable of respectively winding yarns (Y), are attached to be aligned in the axial direction; a contact roller which extends in the axial direction and which makes contact with outer circumferential surfaces of packages (P) formed by winding the yarns (Y) onto the respective bobbins (B); and a first cover member which is provided in at least a part of an area provided upstream of a contact point (C) in a rotational direction of each of the packages (P) and which is provided along a circumferential direction of each of the packages (P), and the contact point (C) being between the packages (P) and the contact roller , characterized in that the yarn winder comprises a second cover member which is provided upstream of the contact point (C) in the rotational direction and provided downstream of the first cover member in the rotational direction, the second cover member guiding air (F), which flows toward the contact point (C) in accordance with rotation of the packages (P), to gaps between the adjacent packages (P) . a bobbin holder which is rotatably supported by the base , which extends along an axial direction which is along the horizontal direction, and to which bobbins (B), which are capable of respectively winding yarns (Y), are attached to be aligned in the axial direction; a contact roller which extends in the axial direction and which makes contact with outer circumferential surfaces of packages (P) formed by winding the yarns (Y) onto the respective bobbins (B); and a first cover member which is provided in at least a part of an area provided upstream of a contact point (C) in a rotational direction of each of the packages (P) and which is provided along a circumferential direction of each of the packages (P), and the contact point (C) being between the packages (P) and the contact roller , characterized in that the yarn winder comprises a second cover member which is provided upstream of the contact point (C) in the rotational direction and provided downstream of the first cover member in the rotational direction, the second cover member guiding air (F), which flows toward the contact point (C) in accordance with rotation of the packages (P), to gaps between the adjacent packages (P) .