mhurhangee/patent-ind-claim-en huggingface dataset:
A band saw blade comprising: a blade body comprising a cutting edge defined by a plurality of teeth spaced relative to each other, each tooth comprising: a tip ; a rake face formed on one side of the tip ; a primary clearance surface formed on an opposite side of the tip relative to the rake face and defining a primary relief angle (α1); a secondary clearance surface formed on an opposite side of the primary clearance surface relative to the tip and defining a secondary relief angle (α2) that is greater than the primary relief angle (α1); a tertiary clearance surface formed on an opposite side of the secondary clearance surface relative to the primary clearance surface and defining a tertiary relief angle (α3) that is greater than the secondary relief angle (α2); and a protrusion formed between the secondary clearance surface and the tertiary clearance surface and having a curvilinear shape, wherein the protrusion is defined by a concave surface and a convex surface , wherein the concave surface extends from the secondary clearance surface to the convex surface , and wherein the convex surface extends from the concave surface to the tertiary clearance surface . a tip ; a rake face formed on one side of the tip ; a primary clearance surface formed on an opposite side of the tip relative to the rake face and defining a primary relief angle (α1); a secondary clearance surface formed on an opposite side of the primary clearance surface relative to the tip and defining a secondary relief angle (α2) that is greater than the primary relief angle (α1); a tertiary clearance surface formed on an opposite side of the secondary clearance surface relative to the primary clearance surface and defining a tertiary relief angle (α3) that is greater than the secondary relief angle (α2); and a protrusion formed between the secondary clearance surface and the tertiary clearance surface and having a curvilinear shape, wherein the protrusion is defined by a concave surface and a convex surface , wherein the concave surface extends from the secondary clearance surface to the convex surface , and wherein the convex surface extends from the concave surface to the tertiary clearance surface .
A semiconductor device (40-45) constituted so as to generate a random number and/or probability, integratedly comprising: a random pulse generation source (hereafter referred to as RPG) for generating random pulses (PULSE1-PULSE4); means for measuring (S130-S190) the time interval between the random pulses generated from the RPG or measuring a voltage value corresponding to an amplitude of a said random pulse; and means for converting (S200-S280) the measured time interval or voltage value into a digital value; characterized in that the RPG includes an emitter for discharging α particles, or beta rays, or α particles and beta rays due to nuclear decay, and a detector for detecting discharged α particles or beta rays, or α particles and beta rays and generating said random pulses having random timing and/or amplitude corresponding to the detected discharged α particles or beta rays, or α particles and beta rays; and in that the emitter is positioned immediately facing the detector, wherein the emitter is comprised in a thin layer on a detection face of the detector, or wherein a member faces the detector at a predetermined distance set by a spacer , said member having thereon a thin layer comprising the emitter, or said member comprising the emitter and formed into a panel. a random pulse generation source (hereafter referred to as RPG) for generating random pulses (PULSE1-PULSE4); means for measuring (S130-S190) the time interval between the random pulses generated from the RPG or measuring a voltage value corresponding to an amplitude of a said random pulse; and means for converting (S200-S280) the measured time interval or voltage value into a digital value; characterized in that the RPG includes an emitter for discharging α particles, or beta rays, or α particles and beta rays due to nuclear decay, and a detector for detecting discharged α particles or beta rays, or α particles and beta rays and generating said random pulses having random timing and/or amplitude corresponding to the detected discharged α particles or beta rays, or α particles and beta rays; and in that the emitter is positioned immediately facing the detector, wherein the emitter is comprised in a thin layer on a detection face of the detector, or wherein a member faces the detector at a predetermined distance set by a spacer , said member having thereon a thin layer comprising the emitter, or said member comprising the emitter and formed into a panel.
A female connector intended to be coupled, in use, to a male needle connector of a microfluidic system, the female connector comprising: a containment body having a first, a second and a third body walls, the first body wall opposite to the third body wall; a connector chamber in the containment body, the connector chamber being delimited by at least one first face formed by the first body wall, one second face formed by the second body wall, and one third face formed by the third body wall, the third face opposite to the first face , the first and second faces not facing each other; a duct extending in the first body wall of the containment body to a duct opening on the first face of the connector chamber ; a needle entry hole extending from a lateral face of the containment body through the second body wall as far as the second face of the connector chamber ; and a cup-shaped gasket arranged in the connector chamber , the gasket having a side wall and a bottom wall , the bottom wall extending transversely to the side wall , and internally delimiting a cavity , the bottom wall arranged contiguous to the third face of the connector chamber , wherein the side wall of the gasket extends in part adjacent to the second face of the connector chamber and closes the needle entry hole , and the cavity of the gasket faces the first face of the connector chamber . a containment body having a first, a second and a third body walls, the first body wall opposite to the third body wall; a connector chamber in the containment body, the connector chamber being delimited by at least one first face formed by the first body wall, one second face formed by the second body wall, and one third face formed by the third body wall, the third face opposite to the first face , the first and second faces not facing each other; a duct extending in the first body wall of the containment body to a duct opening on the first face of the connector chamber ; a needle entry hole extending from a lateral face of the containment body through the second body wall as far as the second face of the connector chamber ; and a cup-shaped gasket arranged in the connector chamber , the gasket having a side wall and a bottom wall , the bottom wall extending transversely to the side wall , and internally delimiting a cavity , the bottom wall arranged contiguous to the third face of the connector chamber , wherein the side wall of the gasket extends in part adjacent to the second face of the connector chamber and closes the needle entry hole , and the cavity of the gasket faces the first face of the connector chamber .
A passive fill-level control system, having • a container receiving a primary medium (P), wherein the primary medium (P) in the container has a liquid phase and a steam phase during operation, • a feed line for the primary medium (P) connected to the container , into which feed line a control valve is connected, and • a standpipe which is connected as a communicating pipe to the container and through which the primary medium (P) can flow, wherein the standpipe in a partial section forms the primary side of a heat exchanger , the secondary side of which has a secondary line receiving a secondary medium (S), into which a pilot valve acting on the control valve is connected, characterized in that the heat exchanger has a predominantly vertically oriented elongated heat exchange surface and that the pilot valve and the control valve can be adjusted continuously in such a manner that the flow through the feed line continuously varies with the fill-level of the liquid phase in the container . • a container receiving a primary medium (P), wherein the primary medium (P) in the container has a liquid phase and a steam phase during operation, • a feed line for the primary medium (P) connected to the container , into which feed line a control valve is connected, and • a standpipe which is connected as a communicating pipe to the container and through which the primary medium (P) can flow,
A curable adhesive composition, comprising: a multifunctional acetoacetate compound, a polyoxypropylene polyamine, and a polyoxyalkylene polyamine having oxyalkylene units selected from at least two of oxypropylene unit, oxyethylene unit, and oxytetramethylene unit. a multifunctional acetoacetate compound, a polyoxypropylene polyamine, and a polyoxyalkylene polyamine having oxyalkylene units selected from at least two of oxypropylene unit, oxyethylene unit, and oxytetramethylene unit.
A reserved vehicle control method of a reserved vehicle control device capable of communicating with a terminal device that a user possesses and a plurality of vehicles, and controlling a reserved vehicle reserved by the user at a reservation timing from the plurality of vehicles through the terminal device , in accordance with an operation performed on the terminal device , the method comprising: acquiring positional information of the terminal device ; acquiring positional information of the reserved vehicle ; outputting, to the terminal device , allowing information indicating that an operation on a light-emitting device mounted on the reserved vehicle is allowed, in accordance with the positional information of the terminal device , the positional information of the reserved vehicle and a riding location at which the user is to get in the reserved vehicle , the riding location being set at the reservation timing and the allowing information being recognizable by the user; acquiring map information; determining, according to the map information, whether there is a construction obstructing a field of vision of the user between the terminal device and the reserved vehicle ; wherein said outputting the allowing information to the terminal device is performed when determining that the terminal device and the reserved vehicle are present within a predetermined range around the riding location and that there is no construction obstructing the field of vision of the user between the terminal device and the reserved vehicle , wherein the allowing information is output to the terminal device to allow the user to turn on the light-emitting device by performing an operation on the terminal device . acquiring positional information of the terminal device ; acquiring positional information of the reserved vehicle ; outputting, to the terminal device , allowing information indicating that an operation on a light-emitting device mounted on the reserved vehicle is allowed, in accordance with the positional information of the terminal device , the positional information of the reserved vehicle and a riding location at which the user is to get in the reserved vehicle , the riding location being set at the reservation timing and the allowing information being recognizable by the user; acquiring map information; determining, according to the map information, whether there is a construction obstructing a field of vision of the user between the terminal device and the reserved vehicle ; wherein said outputting the allowing information to the terminal device is performed when determining that the terminal device and the reserved vehicle are present within a predetermined range around the riding location and that there is no construction obstructing the field of vision of the user between the terminal device and the reserved vehicle , wherein the allowing information is output to the terminal device to allow the user to turn on the light-emitting device by performing an operation on the terminal device .
A method of determining an input phase differential between two differential input voltage signals (V1p;V2p, V1m;V2m), comprising, providing a phase detector comprising a Gilbert cell having at least two pairs of transistors and having two differential voltage inputs (V1p;V2p, V1m;V2m), two output nodes carrying first and second current signals (Iout_left; Iout_right) and a supply voltage (VCC), a first resistance (R1) connected in a first branch between the supply voltage (VCC) and the first output node carrying a first current signal (Iout_left) and a second resistance (R2) connected in a second branch between the supply voltaqe (VCC) and the second output node carrying a second current signal (Iout_right), adjusting a relationship between the first resistance (R1) and the second resistance (R2) until a differential mode output voltage (Vdm) of the phase detector is zero, and determining an input phase differential (Δφ) when the differential mode output voltage (Vdm) is zero from a ratio between a difference and a sum of the first (R1) and second (R2) resistances, where the differential mode output voltage (Vdm) is a voltage difference between the two output nodes of the phase detector .
A method implemented in a communication network associated with a mobile device , the method comprising: receiving a download request and network visibility data from the mobile device , wherein the network visibility data relates to one or more networks, and wherein the network visibility data refers to one or more of: received signal strength; network type; network ID; and handoff calculation data; determining that the download request is better handled by a target network than the communication network , based at least in part on the network visibility data; initiating a handoff request with the target network ; placing a restriction on one or more resources of the target network available to process the download request from the mobile device , wherein the restriction includes one or more of a limit on duration of time available to process the download request, a limit on a size of file that may be downloaded, a limit on a data rate available to process the download request, or a limit on services available on the target network that may be accessed; and maintaining a service priority for the mobile device with the communication network while the mobile device is in communication with the target network , wherein the handoff request comprises a pre-reversed handoff request including a first portion designating a forward handoff from the communication network to the target network , and a second portion designating a reverse handoff from the target network to the communication network . receiving a download request and network visibility data from the mobile device , wherein the network visibility data relates to one or more networks, and wherein the network visibility data refers to one or more of: received signal strength; network type; network ID; and handoff calculation data; determining that the download request is better handled by a target network than the communication network , based at least in part on the network visibility data; initiating a handoff request with the target network ; placing a restriction on one or more resources of the target network available to process the download request from the mobile device , wherein the restriction includes one or more of a limit on duration of time available to process the download request, a limit on a size of file that may be downloaded, a limit on a data rate available to process the download request, or a limit on services available on the target network that may be accessed; and maintaining a service priority for the mobile device with the communication network while the mobile device is in communication with the target network , wherein the handoff request comprises a pre-reversed handoff request including a first portion designating a forward handoff from the communication network to the target network , and a second portion designating a reverse handoff from the target network to the communication network .
A hydraulic system comprising: a hydraulic actuator configured to receive and discharge fluid flow to move a piston or a hydraulic motor; a pump configured to be a fluid flow source driven by an electric motor to provide fluid flow to the hydraulic actuator , wherein the pump has an inlet port and an outlet port ; a boost flow line configured to provide boost fluid flow or receive excess fluid flow; a reservoir fluid line fluidly coupled to a reservoir ; and a valve assembly configured to operate in a plurality of states comprising at least: (i) a first state in which the valve assembly blocks flow path between the inlet port of the pump and the reservoir , thereby allowing the pump to operate in a closed-circuit configuration in which fluid discharged from the hydraulic actuator is provided to the inlet port of the pump , and characterised by (ii) a second state in which the valve assembly opens flow path between the inlet port of the pump and the reservoir to allow the pump to draw fluid from the reservoir , and opens flow path from the outlet port of the pump to the boost flow line , thereby allowing the pump to operate in an open-circuit configuration in which fluid discharged from the hydraulic actuator is provided to the reservoir . a hydraulic actuator configured to receive and discharge fluid flow to move a piston or a hydraulic motor; a pump configured to be a fluid flow source driven by an electric motor to provide fluid flow to the hydraulic actuator , wherein the pump has an inlet port and an outlet port ; a boost flow line configured to provide boost fluid flow or receive excess fluid flow; a reservoir fluid line fluidly coupled to a reservoir ; and a valve assembly configured to operate in a plurality of states comprising at least: (i) a first state in which the valve assembly blocks flow path between the inlet port of the pump and the reservoir , thereby allowing the pump to operate in a closed-circuit configuration in which fluid discharged from the hydraulic actuator is provided to the inlet port of the pump , and characterised by (ii) a second state in which the valve assembly opens flow path between the inlet port of the pump and the reservoir to allow the pump to draw fluid from the reservoir , and opens flow path from the outlet port of the pump to the boost flow line , thereby allowing the pump to operate in an open-circuit configuration in which fluid discharged from the hydraulic actuator is provided to the reservoir .
A vibration actuator, comprising: a movable body that centrally includes a magnet having a columnar shape and in which spring retaining parts are disposed respectively on front and back surfaces of the magnet in an axial direction of the magnet ; a fixing body for accommodating the movable body , the fixing body having a cylindrical shape and including a pair of annular coils disposed radially outside of the movable body ; a pair of elastic supporting parts for supporting the movable body such that the movable body is capable of reciprocating vibration in a vibration direction along the axial direction, each of the elastic supporting parts being joined to the fixing body at an outer circumferential portion and being joined to a corresponding one of the spring retaining parts at an inner circumferential portion ; characterised in that the vibration actuator further comprises a sealing part that is disposed at a joint portion between the inner circumferential portion and the movable body and that seals the joint portion, wherein the spring retaining parts include recess forming portions continuous with a joining surface with the inner circumferential portions , the inner circumferential portion has a recessed portion which is cut out on an outer circumference of the inner circumferential portion in the circumferential direction and located on the joining surface , and the sealing part is capable of connecting and sealing the recessed portion and the recess forming portion in communication with each other, and seals the joint portion. a movable body that centrally includes a magnet having a columnar shape and in which spring retaining parts are disposed respectively on front and back surfaces of the magnet in an axial direction of the magnet ; a fixing body for accommodating the movable body , the fixing body having a cylindrical shape and including a pair of annular coils disposed radially outside of the movable body ; a pair of elastic supporting parts for supporting the movable body such that the movable body is capable of reciprocating vibration in a vibration direction along the axial direction, each of the elastic supporting parts being joined to the fixing body at an outer circumferential portion and being joined to a corresponding one of the spring retaining parts at an inner circumferential portion ; characterised in that the vibration actuator further comprises a sealing part that is disposed at a joint portion between the inner circumferential portion and the movable body and that seals the joint portion, wherein the spring retaining parts include recess forming portions continuous with a joining surface with the inner circumferential portions , the inner circumferential portion has a recessed portion which is cut out on an outer circumference of the inner circumferential portion in the circumferential direction and located on the joining surface , and the sealing part is capable of connecting and sealing the recessed portion and the recess forming portion in communication with each other, and seals the joint portion.
A tensioning system consisting of a tensioning device and a combination bolt , - wherein the tensioning device mounts at least one annular piston and at least three tensioning elements in the housing , and also comprises an automatically closable receiving recess for temporarily receiving the combination bolt , - wherein the combination bolt has two tensioning faces in the shape of the conical surface of a truncatedcone, the surfaces of which are inclined towards one another, - wherein the housing comprises a housing cover lying on the housing main body , characterised in that the housing main body of the housing and the tensioning elements each have a centring tensioning face or a shell tensioning face in the shape of the conical surface of a truncated cone, the surfaces of which face away from one another, - that a support tube is integrally moulded on the housing main body and a stop tube is integrally moulded on the housing cover , - that the tensioning elements , as parts of a tensioning ring , are arranged radially advanceable in the axial direction between the end face of the support tube and the end face of the stop tube and - that the annular piston comprises - for the displaceability of the tensioning elements - an annular groove wedge face in the shape of the conical surface of a truncated cone, which lies spatially between the upper (52-54) and lower piston inner seal (55-56). - wherein the tensioning device mounts at least one annular piston and at least three tensioning elements in the housing , and also comprises an automatically closable receiving recess for temporarily receiving the combination bolt , - wherein the combination bolt has two tensioning faces in the shape of the conical surface of a truncatedcone, the surfaces of which are inclined towards one another, - wherein the housing comprises a housing cover lying on the housing main body , - that a support tube is integrally moulded on the housing main body and a stop tube is integrally moulded on the housing cover , - that the tensioning elements , as parts of a tensioning ring , are arranged radially advanceable in the axial direction between the end face of the support tube and the end face of the stop tube and - that the annular piston comprises - for the displaceability of the tensioning elements - an annular groove wedge face in the shape of the conical surface of a truncated cone, which lies spatially between the upper (52-54) and lower piston inner seal (55-56).