mhurhangee/ep-ind-claims huggingface dataset:
An information acquiring apparatus that acquires information for processing a peripheral edge of an eyeglasses lens, characterized by: a first shape information acquiring portion configured to acquire first shape information regarding a shape of a projection part (RIRa) of an eyeglasses frame having a rim, the projection part (RIRa) being formed on the rim to be fitted into the eyeglasses lens; a second shape information acquiring portion configured to acquire second shape information regarding a shape of a peripheral edge of a demonstration lens or a template of the eyeglasses frame; and a groove information acquiring portion configured to acquire groove information regarding a groove formed in the eyeglasses lens for fitting the eyeglasses lens into the eyeglasses frame, based on the first shape information and the second shape information. a first shape information acquiring portion configured to acquire first shape information regarding a shape of a projection part (RIRa) of an eyeglasses frame having a rim, the projection part (RIRa) being formed on the rim to be fitted into the eyeglasses lens; a second shape information acquiring portion configured to acquire second shape information regarding a shape of a peripheral edge of a demonstration lens or a template of the eyeglasses frame; and a groove information acquiring portion configured to acquire groove information regarding a groove formed in the eyeglasses lens for fitting the eyeglasses lens into the eyeglasses frame, based on the first shape information and the second shape information.
A method of protecting traffic in a communications network, the communications network providing paths for the traffic extending from a source client entity to a destination client entity via an optical transport network, providing at least one attachment circuit (AC1, AC2) for coupling the source client entity to corresponding ingress nodes (A, B) of the optical transport network, and providing at least one attachment circuit (AC3, AC4) at the egress, for coupling corresponding egress nodes of the optical transport network to the destination client entity, the attachment circuits comprising dual homed attachment circuits at least at the ingress nodes, and the paths comprising paths within the optical transport network, to couple respective pairs of the ingress and egress nodes, the method having steps of: sending through the optical transport network an indication of operational status of at least one of the dual homed attachment circuits, the indication being sent within overhead associated with the traffic and sent with the traffic, and at a node of the optical transport network, selecting which of the provided paths and attachment circuits to use for the traffic, based on the indication of operational status of the attachment circuits sent through the optical transport network, to protect the traffic against a fault in the attachment circuit and against a fault in the optical transport network; the traffic comprising at least two traffic flows each having a respective source client entity (CE1, CE3) and destination client entity (CE2, CE4), the at least two traffic flows having their own dual homed attachment circuits (AC1, AC2, AC5, AC6) and sharing the same paths through at least some of the optical transport network, wherein the indication sent within the overhead comprises indications of operational status of the respective attachment circuits of the at least two traffic flows. sending through the optical transport network an indication of operational status of at least one of the dual homed attachment circuits, the indication being sent within overhead associated with the traffic and sent with the traffic, and at a node of the optical transport network, selecting which of the provided paths and attachment circuits to use for the traffic, based on the indication of operational status of the attachment circuits sent through the optical transport network, to protect the traffic against a fault in the attachment circuit and against a fault in the optical transport network; the traffic comprising at least two traffic flows each having a respective source client entity (CE1, CE3) and destination client entity (CE2, CE4), the at least two traffic flows having their own dual homed attachment circuits (AC1, AC2, AC5, AC6) and sharing the same paths through at least some of the optical transport network, wherein the indication sent within the overhead comprises indications of operational status of the respective attachment circuits of the at least two traffic flows.
A method for performing a test of DSL capability comprising the steps of: accessing a telephone line along a test path, said test path including at least one voice switch test bus and a splitter; ascertaining in the background to DSL service on said telephone line a plurality of line characteristics of said telephone line along said test path using mid-band frequency signals, including signals of frequencies between 4 kHz and 20 kHz, and narrow-band frequency signals including signals of frequencies less than or equal to 3.5 kHz; analyzing said plurality of line characteristics to identify a plurality of line conditions which affect DSL service; and determining an impact level of one or more of the line conditions on DSL service. accessing a telephone line along a test path, said test path including at least one voice switch test bus and a splitter; ascertaining in the background to DSL service on said telephone line a plurality of line characteristics of said telephone line along said test path using mid-band frequency signals, including signals of frequencies between 4 kHz and 20 kHz, and narrow-band frequency signals including signals of frequencies less than or equal to 3.5 kHz; analyzing said plurality of line characteristics to identify a plurality of line conditions which affect DSL service; and determining an impact level of one or more of the line conditions on DSL service.
Method for monitoring a sensor clock signal in a sensor unit, which is generated and output with a predetermined period duration (T_STS) for data transfer between the sensor unit and a control unit, wherein a reference clock signal with a predetermined reference period duration (T_ref) is received, wherein the sensor clock signal is compared with the reference clock signal, wherein a deviation (Delta _t) of the current period duration (T_STS) of the sensor clock signal from a target period duration (T_STS_soll) is determined based on the comparison, and wherein a counting pulse or a reset pulse is output based on the determined deviation (Delta_t), characterized in that the counting pulse increments an error counter and the reset pulse decrements or resets the error counter, wherein the error counter is incremented if the deviation (Delta_t) is within an acceptance window and outside a predetermined optimal value window (WOpt), wherein the error counter is decremented or reset if the deviation (Delta _t) is within the acceptance window and within the predetermined optimal value window (WOpt), and wherein an error signal is output when an error counter value reaches or exceeds a predetermined limit value.
A snow thrower, comprising: a first drive shaft capable of rotating about a first axis; an auger comprising auger blades mounted to the first drive shaft; a second drive shaft capable of rotating about a second axis; an impeller comprising an impeller base mounted to the second drive shaft and impeller blades mounted to the impeller base, the second axis and the first axis being perpendicular to each other; a wheel assembly configured to support the snow thrower to enable the snow thrower to move on a ground; a first motor configured to drive the wheel assembly to rotate, the first motor comprising a first motor shaft that outputs power; a second motor configured to drive the auger to rotate about the first axis and drive the impeller to rotate about the second axis, the second motor comprising a second motor shaft (132 a) that outputs power; a first reduction assembly comprising a plurality of first-type gears for realizing power transmission between the second motor and the second drive shaft; and a second reduction assembly comprising a plurality of second-type gears for realizing power transmission between the second drive shaft and the first drive shaft; characterized in that said second motor shaft is located on a lower side of the second drive shaft. a first drive shaft capable of rotating about a first axis; an auger comprising auger blades mounted to the first drive shaft; a second drive shaft capable of rotating about a second axis; an impeller comprising an impeller base mounted to the second drive shaft and impeller blades mounted to the impeller base, the second axis and the first axis being perpendicular to each other; a wheel assembly configured to support the snow thrower to enable the snow thrower to move on a ground; a first motor configured to drive the wheel assembly to rotate, the first motor comprising a first motor shaft that outputs power; a second motor configured to drive the auger to rotate about the first axis and drive the impeller to rotate about the second axis, the second motor comprising a second motor shaft (132 a) that outputs power; a first reduction assembly comprising a plurality of first-type gears for realizing power transmission between the second motor and the second drive shaft; and a second reduction assembly comprising a plurality of second-type gears for realizing power transmission between the second drive shaft and the first drive shaft; characterized in that said second motor shaft is located on a lower side of the second drive shaft.
Polyphase converter comprising a plurality of electrical phases (11 to 16) which can each be driven by switching means (21 to 26), wherein at least one coupling means (31 to 39) which magnetically couples at least one first phase to at least one further phase (12, 14, 16) is provided, wherein at least two phases (11, 12) to be coupled are enclosed at least partially by the coupling means, characterized in that at least one insulating body, which accommodates the phases (11 to 16) to be coupled on the upper side and underside thereof and on which is provided at least one fixing means (74, 76, 90) which interacts with at least one of the phases (11 to 16) for fixing purposes, is provided, wherein the insulating body has at least one cutout for feeding through at least one coupling means (31 to 39).
A vacuum pump comprising: a pump casing having an inlet port, an outlet port, and a plurality of pump chambers (50a-50f) defined therein; a rotational shaft having opposite ends rotatably supported by bearings (84a, 84b) and extending longitudinally in the pump casing; and a rotor (62a-62f) housed in the pump chambers (50a-50f) and coupled to the rotational shaft for rotation in unison with the rotational shaft; characterised in that the pump casing has an atmosphere-vented compartment defined therein which is held in fluid communication with the outlet port of the pump casing and vented to the atmosphere, wherein the pump casing further has an outer barrel having a double-walled structure including an inner wall and an outer wall disposed outside of and spaced with a certain distance from the inner wall, and gas passages (72a-72e) are defined between the inner wall and the outer wall, through which high-temperature process gas flows from a lower outlet side of the pump chambers to an upper inlet side of the pump chambers in the next stages to heat the pump chambers, wherein the pump casing further has an oulet-side end wall closing an end of the outer barrel, and wherein the atmosphere-vented compartment is defined between the oulet-side end wall and a side panel which is disposed adjacent to and spaced from the outlet-side end wall. a pump casing having an inlet port, an outlet port, and a plurality of pump chambers (50a-50f) defined therein; a rotational shaft having opposite ends rotatably supported by bearings (84a, 84b) and extending longitudinally in the pump casing; and a rotor (62a-62f) housed in the pump chambers (50a-50f) and coupled to the rotational shaft for rotation in unison with the rotational shaft; characterised in that the pump casing has an atmosphere-vented compartment defined therein which is held in fluid communication with the outlet port of the pump casing and vented to the atmosphere, wherein the pump casing further has an outer barrel having a double-walled structure including an inner wall and an outer wall disposed outside of and spaced with a certain distance from the inner wall, and gas passages (72a-72e) are defined between the inner wall and the outer wall, through which high-temperature process gas flows from a lower outlet side of the pump chambers to an upper inlet side of the pump chambers in the next stages to heat the pump chambers, wherein the pump casing further has an oulet-side end wall closing an end of the outer barrel, and wherein the atmosphere-vented compartment is defined between the oulet-side end wall and a side panel which is disposed adjacent to and spaced from the outlet-side end wall.
A computerized system for IPR tooth modelling of a patient to facilitate orthodontic treatment, said computerized system comprising: a microprocessor comprising a plurality of algorithms; a memory device; and wherein said computerized system for IPR modelling is configured for: determining whether stripping is needed for a tooth between any neighbouring teeth; generating an three-dimensional IPR tooth model for a tooth based on potential collision with any neighbouring teeth; and utilizing said IPR tooth model to facilitate treatment planning, wherein generating an IPR tooth model for said tooth comprises constructing a stripping plane (202, 302, 626) for said tooth, and wherein said computerized system is configured for constructing said stripping plane for said tooth by determining a normal direction of said stripping plane based on local coordinate systems for said tooth or other appropriate references and at least one neighbouring tooth, and determining a target point between contours associated with said tooth and said at least one neighbouring tooth, with said stripping plane being constructed to go through said target point and in said normal direction. a microprocessor comprising a plurality of algorithms; a memory device; and wherein said computerized system for IPR modelling is configured for: determining whether stripping is needed for a tooth between any neighbouring teeth; generating an three-dimensional IPR tooth model for a tooth based on potential collision with any neighbouring teeth; and utilizing said IPR tooth model to facilitate treatment planning, wherein generating an IPR tooth model for said tooth comprises constructing a stripping plane (202, 302, 626) for said tooth, and wherein said computerized system is configured for constructing said stripping plane for said tooth by determining a normal direction of said stripping plane based on local coordinate systems for said tooth or other appropriate references and at least one neighbouring tooth, and determining a target point between contours associated with said tooth and said at least one neighbouring tooth, with said stripping plane being constructed to go through said target point and in said normal direction. determining whether stripping is needed for a tooth between any neighbouring teeth; generating an three-dimensional IPR tooth model for a tooth based on potential collision with any neighbouring teeth; and utilizing said IPR tooth model to facilitate treatment planning, wherein generating an IPR tooth model for said tooth comprises constructing a stripping plane (202, 302, 626) for said tooth, and wherein said computerized system is configured for constructing said stripping plane for said tooth by determining a normal direction of said stripping plane based on local coordinate systems for said tooth or other appropriate references and at least one neighbouring tooth, and determining a target point between contours associated with said tooth and said at least one neighbouring tooth, with said stripping plane being constructed to go through said target point and in said normal direction.
Method for transition of control from a first controller to a second controller, the method comprising: communicatively coupling (143, 145) the first controller and the second controller, such that at least one static digital input signal received by one controller is mutually provided to the respective other controller and such that at least one static digital output signal generated by one controller is mutually provided to the respective other controller; disconnecting at least one output line from the first controller; connecting the at least one output line to the second controller; supplying at least one output signal to the at least one output line, characterized in that the at least one output signal is obtained by performing a logical OR using an OR-gate, to at least one first output signal generated by the first controller and at least one second output signal generated by the second controller, the method further comprising before disconnecting at least one output line from the first controller: supplying a logical high signal to the output line by an external voltage source, if the first output signal is a logical high signal or if the output line is at a logical high state during normal operation. communicatively coupling (143, 145) the first controller and the second controller, such that at least one static digital input signal received by one controller is mutually provided to the respective other controller and such that at least one static digital output signal generated by one controller is mutually provided to the respective other controller; disconnecting at least one output line from the first controller; connecting the at least one output line to the second controller; supplying at least one output signal to the at least one output line, characterized in that the at least one output signal is obtained by performing a logical OR using an OR-gate, to at least one first output signal generated by the first controller and at least one second output signal generated by the second controller, the method further comprising before disconnecting at least one output line from the first controller: supplying a logical high signal to the output line by an external voltage source, if the first output signal is a logical high signal or if the output line is at a logical high state during normal operation. supplying a logical high signal to the output line by an external voltage source, if the first output signal is a logical high signal or if the output line is at a logical high state during normal operation.
A breather device for dehumidifying air to be supplied into an expansion vessel of a power electrical device, said breather device comprising an air demoisturizer unit including one or more tanks, each tank having an internal volume accommodating a regenerable moisture absorbing substance and a heater for regenerating said moisture absorbing substance, at least a first opening configured to put the internal volume of said tank in fluid-dynamic communication with the external environment and at least a second opening configured to allow a flow of air to exit from the internal volume of said tank towards another section of said breather device, characterised in that each tank comprises at least a third opening in fluid-dynamic communication with the external environment and valve means operatively associated to said third opening, said valve means being configured to automatically allow or prevent a flow of air to pass through said third opening, depending on the internal temperature of said tank.
Aqueous composition for dissolving hair, comprising - one or more thioglycolates and - urea, wherein - the concentration of urea is 6 wt% or less, based on the total amount of the composition, - the total concentration of thioglycolate ions is less than 1 wt%, based on the total amount of the composition, and - the ratio of the mass of urea to the total mass of thioglycolate ions is in the range from 2: 1 to 14: 1. - one or more thioglycolates and - urea, wherein - the concentration of urea is 6 wt% or less, based on the total amount of the composition, - the total concentration of thioglycolate ions is less than 1 wt%, based on the total amount of the composition, and - the ratio of the mass of urea to the total mass of thioglycolate ions is in the range from 2: 1 to 14: 1.
Device for inserting a pipe into an elongated hollow space, comprising at least two pipe grippers, movable along a curved track belonging to the device, which are arranged and configured so as to grip round the pipe at least in sections and to move the pipe in a curved manner in the gripped condition, at least in sections.
A microchip electrophoresis dispensing apparatus (100, 200) comprising: an electrophoresis column having an input end and an output end, wherein the input end has an opening configured to accept a fluid sample; a first electrode proximate to and in fluidic connection with the input end of the electrophoresis column; a sheath liquid reservoir; a pump chamber connected to the sheath liquid reservoir, wherein the pump chamber comprises an impulsive pump element configured to impulsively deform at least a portion of the pump chamber; an exit channel (109, 202) having an upstream end and a downstream end, wherein the upstream end is connected to the pump chamber, wherein the downstream end has a discharge outlet, and wherein the output end of the electrophoresis column intersects the exit channel; and a second electrode (113, 203) in fluidic connection with the exit channel. an electrophoresis column having an input end and an output end, wherein the input end has an opening configured to accept a fluid sample; a first electrode proximate to and in fluidic connection with the input end of the electrophoresis column; a sheath liquid reservoir; a pump chamber connected to the sheath liquid reservoir, wherein the pump chamber comprises an impulsive pump element configured to impulsively deform at least a portion of the pump chamber; an exit channel (109, 202) having an upstream end and a downstream end, wherein the upstream end is connected to the pump chamber, wherein the downstream end has a discharge outlet, and wherein the output end of the electrophoresis column intersects the exit channel; and a second electrode (113, 203) in fluidic connection with the exit channel.