mhurhangee/patent-ind-claim-en huggingface dataset:
A pouch , comprising: a generally flat platform having a front side and a back side opposite the front side , the back side comprising at least one attachment element for attaching the pouch to a supporting structure; a first pouch enclosure panel comprising a periphery thereabout having elongate connector portions connected to peripheral portions of a pouch region of the front side of the platform , and standing portions angularly related to the connector portions , respectively, and disposed therebetween, the first pouch enclosure panel comprising laminated fabric layers , characterized by at least the standing portions comprising stiffened fusions of the laminated fabric layers , respectively, oriented so as to extend outwardly from the front side of the platform to impart a free standing three dimensional shape to the first pouch enclosure panel in overlaying spaced relation to the pouch region of the front side of the platform to define and bound a cavity therebetween and at least one opening connected to the cavity . a generally flat platform having a front side and a back side opposite the front side , the back side comprising at least one attachment element for attaching the pouch to a supporting structure; a first pouch enclosure panel comprising a periphery thereabout having elongate connector portions connected to peripheral portions of a pouch region of the front side of the platform , and standing portions angularly related to the connector portions , respectively, and disposed therebetween, the first pouch enclosure panel comprising laminated fabric layers , characterized by at least the standing portions comprising stiffened fusions of the laminated fabric layers , respectively, oriented so as to extend outwardly from the front side of the platform to impart a free standing three dimensional shape to the first pouch enclosure panel in overlaying spaced relation to the pouch region of the front side of the platform to define and bound a cavity therebetween and at least one opening connected to the cavity .
A method of determining if an agrochemical in a container is approved for use with downstream agrochemical equipment , comprising: (a) providing the container , the container having an outlet including a valve , and providing a pump to move when operated the agrochemical in the container downstream through a conduit to the agrochemical equipment ; (b) providing a chemical marker in addition to the agrochemical in the container , which chemical marker can be used to determine if the agrochemical is approved for said use; (c) using a probe to extend through an opening of the container to contact the agrochemical and sense the chemical marker; (d) communicating the sensed information to a control module to determine if the agrochemical is approved; (e) based on the sensed information, determining if the agrochemical is approved; and (f) upon approval of the agrochemical, permitting the agrochemical to be used with said agricultural equipment by operation of the pump to deliver the agrochemical from the container to the agricultural equipment; otherwise not permitting the agrochemical to be used with said agricultural equipment. (a) providing the container , the container having an outlet including a valve , and providing a pump to move when operated the agrochemical in the container downstream through a conduit to the agrochemical equipment ; (b) providing a chemical marker in addition to the agrochemical in the container , which chemical marker can be used to determine if the agrochemical is approved for said use; (c) using a probe to extend through an opening of the container to contact the agrochemical and sense the chemical marker; (d) communicating the sensed information to a control module to determine if the agrochemical is approved; (e) based on the sensed information, determining if the agrochemical is approved; and (f) upon approval of the agrochemical, permitting the agrochemical to be used with said agricultural equipment by operation of the pump to deliver the agrochemical from the container to the agricultural equipment; otherwise not permitting the agrochemical to be used with said agricultural equipment.
A blade assembly for use with a sagittal saw assembly comprising a handpiece having a forwardly directed front face and a drive assembly disposed inside said handpiece , the blade assembly comprising: an elongate guide bar adapted to, when coupled to the handpiece, extend forwardly from the handpiece front face and terminate at a distally directed face spaced from the handpiece front face, wherein the guide bar includes a bottom bar , an inner bar and an outer bar that are stacked together, the inner bar holding the bottom bar and the outer bar in spaced relationship from each other, and wherein the inner bar contributes to the overall rigidity of the guide bar ; a saw blade movably attached to said guide bar between the bottom and outer bars , said saw blade having teeth which extend outwardly beyond said guide bar distally directed face and said saw blade having a thickness dimension defined transversely to the elongated direction of said guide bar ; and a connecting member extending in the space between the bottom and outer bars and having a first end adapted to be connected to the drive assembly of the sagittal saw, and a second end connected to said saw blade such that said connecting member , when driven by the drive assembly , is adapted to displace said saw blade so that said teeth oscillate back and forth across said guide bar distally directed face; characterized in that said guide bar has a thickness dimension defined transversely to the elongated direction thereof, said thickness dimension being no greater than the thickness dimension of said saw blade , and wherein said connecting member and said saw blade comprise a monolithic, one-piece component. an elongate guide bar adapted to, when coupled to the handpiece, extend forwardly from the handpiece front face and terminate at a distally directed face spaced from the handpiece front face, wherein the guide bar includes a bottom bar , an inner bar and an outer bar that are stacked together, the inner bar holding the bottom bar and the outer bar in spaced relationship from each other, and wherein the inner bar contributes to the overall rigidity of the guide bar ; a saw blade movably attached to said guide bar between the bottom and outer bars , said saw blade having teeth which extend outwardly beyond said guide bar distally directed face and said saw blade having a thickness dimension defined transversely to the elongated direction of said guide bar ; and a connecting member extending in the space between the bottom and outer bars and having a first end adapted to be connected to the drive assembly of the sagittal saw, and a second end connected to said saw blade such that said connecting member , when driven by the drive assembly , is adapted to displace said saw blade so that said teeth oscillate back and forth across said guide bar distally directed face; characterized in that said guide bar has a thickness dimension defined transversely to the elongated direction thereof, said thickness dimension being no greater than the thickness dimension of said saw blade , and wherein said connecting member and said saw blade comprise a monolithic, one-piece component.
A method of attaching a first part and a second part of mechanical assembly to one another, the method comprising spraying a powder of a ductile material on said first part and on said second part causing, by agglomeration of this powder, the attachment the first part and the second part to one another, the method being characterized in that it comprises texturing at least one surface of the first part or of the second part on which the spraying is then carried out, in that the mechanical resistance of the ductile material from which the powder is formed is less than or equal to that of the first and second parts, and in that the texturing comprising manufacturing an array (R1, R2) of holes via a series of several impacts in the same location by laser radiation followed by a movement of the laser radiation, said manufacturing of the array (R1, R2) is done based on the spraying of the powder so that the density (dpa) of the holes or lines of the array (R1, R2) per surface unit is greater than: e Stpa × L with: - (e) a thickness of the agglomeration of the powder in a direction perpendicular to said surface of the first part or the second part ; - (Stpa) the section of said holes or said lines of said array; - (L) a length of the agglomeration of the powder in a direction parallel to the direction of a traction force (Ft) between the first part and the second part . - (e) a thickness of the agglomeration of the powder in a direction perpendicular to said surface of the first part or the second part ; - (Stpa) the section of said holes or said lines of said array; - (L) a length of the agglomeration of the powder in a direction parallel to the direction of a traction force (Ft) between the first part and the second part .
A micro-electro-mechanical device comprising: a fixed structure having a cavity ; a tiltable structure , elastically suspended over the cavity , having a main extension in a tiltable plane (AB) rotatable, together with the tiltable structure, about at least one rotation axis (B) belonging to the tiltable plane (AB) ; a suspension structure elastically coupling the tiltable structure to the fixed structure and including supporting elements and elastic suspension elements extending longitudinally along the rotation axis (B); a piezoelectric actuation structure including at least a first and a second driving arm , the first and second driving arms carrying respective piezoelectric material regions and extending on opposite sides of the rotation axis (B), the first and the second driving arms being rigidly coupled to the fixed structure and being elastically coupled to the tiltable structure by respective elastic decoupling elements different from the elastic suspension elements ; and a stop structure (83A-83D, 90), different from the suspension structure and the piezoelectric actuation structure , configured to limit, during the rotation of the tiltable structure around the rotation axis (B), movements of the tiltable structure with respect to the actuation structure along a planar direction (A) parallel to the tiltable plane and perpendicular to the rotation axis (B), the stop structure including at least a first planar stop element formed between the first driving arm and the tiltable structure and a second planar stop element formed between the second driving arm and the tiltable structure. a fixed structure having a cavity ; a tiltable structure , elastically suspended over the cavity , having a main extension in a tiltable plane (AB) rotatable, together with the tiltable structure, about at least one rotation axis (B) belonging to the tiltable plane (AB) ; a suspension structure elastically coupling the tiltable structure to the fixed structure and including supporting elements and elastic suspension elements extending longitudinally along the rotation axis (B); a piezoelectric actuation structure including at least a first and a second driving arm , the first and second driving arms carrying respective piezoelectric material regions and extending on opposite sides of the rotation axis (B), the first and the second driving arms being rigidly coupled to the fixed structure and being elastically coupled to the tiltable structure by respective elastic decoupling elements different from the elastic suspension elements ; and a stop structure (83A-83D, 90), different from the suspension structure and the piezoelectric actuation structure , configured to limit, during the rotation of the tiltable structure around the rotation axis (B), movements of the tiltable structure with respect to the actuation structure along a planar direction (A) parallel to the tiltable plane and perpendicular to the rotation axis (B), the stop structure including at least a first planar stop element formed between the first driving arm and the tiltable structure and a second planar stop element formed between the second driving arm and the tiltable structure.
A combination weighing apparatus comprising: a distributing unit that distributes articles supplied from above; a plurality of radiation units that conveys the articles distributed from the distributing unit ; a plurality of detection sensors disposed above the radiation units to detect the articles conveyed by the radiation units ; a plurality of weighing units disposed below the radiation units on a downstream side in an article conveying direction to accumulate and weigh the articles conveyed from the radiation units ; a controller that controls the distributing unit or the radiation units based on detection by the detection sensors ; and a sensor cover that incorporates the plurality of detection sensors , wherein the sensor cover is disposed at a different position from an end portion of each of the radiation units on the downstream side when viewed in a vertical direction. a distributing unit that distributes articles supplied from above; a plurality of radiation units that conveys the articles distributed from the distributing unit ; a plurality of detection sensors disposed above the radiation units to detect the articles conveyed by the radiation units ; a plurality of weighing units disposed below the radiation units on a downstream side in an article conveying direction to accumulate and weigh the articles conveyed from the radiation units ; a controller that controls the distributing unit or the radiation units based on detection by the detection sensors ; and a sensor cover that incorporates the plurality of detection sensors , wherein the sensor cover is disposed at a different position from an end portion of each of the radiation units on the downstream side when viewed in a vertical direction.
A machine learning model generation method for detecting a defect of a printed matter by comparing, using a machine learning model (D5), inspection data which is acquired based on a captured image obtained by capturing an image of the printed matter and reference data which is acquired based on print digital data, the method comprising: an acquisition step of acquiring learning inspection data (D2) that is based on a captured image obtained by capturing an image of a printed matter as an inspection target which is printed based on learning print digital data, learning defect information (D3) of the learning inspection data (D2) that is estimated by performing comparison processing of first learning reference data (D1) and the learning inspection data (D2), the first learning reference data (D1) being based on a captured image obtained by capturing an image of a printed matter without a defect as a reference which is printed based on the learning print digital data, and second learning reference data (D4) based on the learning print digital data; and a generation step of generating the machine learning model (D5) by using at least the learning inspection data (D2) and the second learning reference data (D4) as learning input information and using at least the learning defect information (D3) as learning output information. an acquisition step of acquiring learning inspection data (D2) that is based on a captured image obtained by capturing an image of a printed matter as an inspection target which is printed based on learning print digital data, learning defect information (D3) of the learning inspection data (D2) that is estimated by performing comparison processing of first learning reference data (D1) and the learning inspection data (D2), the first learning reference data (D1) being based on a captured image obtained by capturing an image of a printed matter without a defect as a reference which is printed based on the learning print digital data, and second learning reference data (D4) based on the learning print digital data; and a generation step of generating the machine learning model (D5) by using at least the learning inspection data (D2) and the second learning reference data (D4) as learning input information and using at least the learning defect information (D3) as learning output information.
A soldering iron control device that allows electrical connection to a soldering iron and controls a temperature of a tip of the soldering iron , the soldering iron control device comprising: a first storage unit configured to store in advance a first amount of power to be supplied to the soldering iron in an idling state where the tip is noncontact and the temperature of the tip is maintained within a predetermined range including a set temperature; a measurement unit configured to measure, when the tip enters a load state where the temperature of the tip decreases by a predetermined amount or more from the set temperature by the tip coming into contact with a workpiece, a third amount of power obtained by subtracting the first amount of power from a second amount of power to be supplied to the soldering iron in the load state; a determination unit configured to determine whether the third amount of power exceeds a predetermined threshold; and a notification unit configured to make notification when it is determined that the third amount of power exceeds the threshold. a first storage unit configured to store in advance a first amount of power to be supplied to the soldering iron in an idling state where the tip is noncontact and the temperature of the tip is maintained within a predetermined range including a set temperature; a measurement unit configured to measure, when the tip enters a load state where the temperature of the tip decreases by a predetermined amount or more from the set temperature by the tip coming into contact with a workpiece, a third amount of power obtained by subtracting the first amount of power from a second amount of power to be supplied to the soldering iron in the load state; a determination unit configured to determine whether the third amount of power exceeds a predetermined threshold; and a notification unit configured to make notification when it is determined that the third amount of power exceeds the threshold.
Energy absorbing device with fall indicator for lifelines, comprising a winding shaft , a first rolled spiral , which defines one free first end and a second end , the free first end is connectable to a cable or a fixed element, and the second end is rolled on the winding shaft , the energy absorbing device being characterised in that it comprises two identical second spirals , arranged parallel to each other and configuring a fork on the sides of the first rolled spiral , said second spirals configuring third free ends , arranged in the opposite direction to the free first end , wherein fourth ends of the second spirals are maintained rolled on the winding shaft ; such that the two second spirals are rolled on the winding shaft in the opposite direction to that of the first spiral , the first rolled spiral being twice as thick as each of the two second spirals .
Laundry treatment appliance comprising a drum rotatable about a drum rotation axis , a drum drive connected to the drum in a torque-transmitting manner by means of a belt , and a controller for controlling the drum drive , the drum drive having a drive shaft which is rotatable about a drive rotation axis and is connected to the belt in a torque-transmitting manner, the laundry treatment appliance having a slip detector, which is connected to the controller in a signal-transmitting manner, for detecting a slip between the belt and the drive shaft , the controller being designed and configured such that the drum drive can be controlled by means of the controller depending the detection of a slip between the belt and the drive shaft , characterized in that the controller and the drum drive are designed and configured, such that, when a slip is detected, a direction of rotation of the drive shaft can be reversed by means of the controller.
A method for an access network apparatus, the method comprising: determining a sub-service flow, SSF, identifier, ID, associated with at least a portion of a packet, wherein the SSF ID comprises information associated with a Quality of Service, QoS, or Quality of Experience, QoE, of the packet; marking the packet with the SSF ID; mapping the packet to a corresponding radio buffer of a network control system based on the SSF ID; and causing one or more SSF management actions associated with the packet on a control plane, C-plane. determining a sub-service flow, SSF, identifier, ID, associated with at least a portion of a packet, wherein the SSF ID comprises information associated with a Quality of Service, QoS, or Quality of Experience, QoE, of the packet; marking the packet with the SSF ID; mapping the packet to a corresponding radio buffer of a network control system based on the SSF ID; and causing one or more SSF management actions associated with the packet on a control plane, C-plane.
A distributor device for inputting a mixture (M) of fuel and oxidant into a premix burner , wherein the distributor device comprises a distribution element provided with a first surface (S i ) for inputting the mixture (M) into the distribution element and with a second surface (S u ) opposite the first surface (S i ) for outputting the mixture (M) from the distribution element , wherein the first and the second surface (S i , S u ) have a centrally symmetrical geometrical shape about an axis (A) that is perpendicular to both surfaces (S i , S u ) and passes through a central point (O) of the distribution element , wherein the distribution element comprises openings distributed about the axis (A) and configured to allow the passage and the output of the mixture (M) from the first surface (S i ) out to the second surface (S u ), the distribution element further comprising deflector elements distributed on the second surface (S u ), each of the deflector elements being located proximate to a respective opening and provided with a guide surface (S 10 , S 20 , S 30 , S 40 ) positioned above said respective opening and oriented in such a way as to be able to direct the mixture (M) output from the respective opening from the second surface (S u ) in a respective deflection direction (D 1 , D 2 , D 3 , D 4 ) forming a non-null angle of deflection (β D , β F ) with the axis (A), the deflector elements comprising first deflector elements the guide surfaces (S 10 , S 20 , S 40 ) of which are oriented such that the respective deflection directions (D 1 , D 2 , D 4 ) form an identical, non-null first angle of deflection (β F ) with the axis (A), the distributor device being characterised in that the deflector elements comprise at least one second deflector element whose guide surface (S 30 ) is oriented in such a way as to direct the mixture in a direction (D 3 ) forming a non-null second angle of deflection (β D ) with the axis (A), the second angle of deflection (β D ) being different from the first angle (β F ).
A map creating method for an autonomous robot , comprising: acquiring (S111) an initial map selected from a target database, wherein the initial map comprises an initial boundary; causing (S112) the autonomous robot to perform boundary detection to acquire a measured boundary, wherein positioning precision of the autonomous robot satisfies a preset condition; and correcting (S113) the initial boundary according to the measured boundary. acquiring (S111) an initial map selected from a target database, wherein the initial map comprises an initial boundary; causing (S112) the autonomous robot to perform boundary detection to acquire a measured boundary, wherein positioning precision of the autonomous robot satisfies a preset condition; and correcting (S113) the initial boundary according to the measured boundary.
A negative electrode active material for non-aqueous electrolyte secondary battery, the negative electrode active material comprising a silicon oxide composite comprising silicon, silicon oxide (SiO x , 0<x≤2) and magnesium silicate, and including pores with a diameter of 50 to 192 nm therein, wherein a silicon crystallite size is 1 to 14 nm..