mhurhangee/patent-ind-claim-en huggingface dataset:
A method of disconnecting a generator from a drive member , comprising: receiving a disconnect command; receiving a rotational angle of an input member being rotationally engaged with the drive member and having a ramp extending circumferentially about the input member ; providing an actuator member to mechanically engage with the input member such that rotation of the input member while the actuator member is mechanically engaged with the input member causes the input member to move axially away from and to thereby rotationally disengage from the drive member ; comparing the input member rotational angle with a target disconnect angle range; and determining whether to disconnect the input member from the drive member based on the comparison of the input member rotational angle and the target disconnect angle range. receiving a disconnect command; receiving a rotational angle of an input member being rotationally engaged with the drive member and having a ramp extending circumferentially about the input member ; providing an actuator member to mechanically engage with the input member such that rotation of the input member while the actuator member is mechanically engaged with the input member causes the input member to move axially away from and to thereby rotationally disengage from the drive member ; comparing the input member rotational angle with a target disconnect angle range; and determining whether to disconnect the input member from the drive member based on the comparison of the input member rotational angle and the target disconnect angle range.
An incoming call processing method for a dual SIM-card and dual operating system terminal, characterized in that , the method comprises: detecting whether one operating system that the terminal is using has an incoming call or the other operating system has an incoming call ; wherein the detecting whether the other operating system has an incoming call comprises: determining that the other operating system has an incoming call when an incoming call notification message sent by the other operating system is received; and when both of the two operating systems have an incoming call, partitioning, by the operating system that the terminal is using, a display screen into a first display region and a second display region according to a predetermined display manner , and displaying, in the first display region, the incoming call of the operating system that the terminal uses, and sending a display notification message to the other operating system, such that the other operating system displays an incoming call of the other operating system in the second display region . detecting whether one operating system that the terminal is using has an incoming call or the other operating system has an incoming call ; wherein the detecting whether the other operating system has an incoming call comprises: determining that the other operating system has an incoming call when an incoming call notification message sent by the other operating system is received; and when both of the two operating systems have an incoming call, partitioning, by the operating system that the terminal is using, a display screen into a first display region and a second display region according to a predetermined display manner , and displaying, in the first display region, the incoming call of the operating system that the terminal uses, and sending a display notification message to the other operating system, such that the other operating system displays an incoming call of the other operating system in the second display region .
Filter medium comprising three layers (A) to (C), wherein layer (A) comprises non-impregnated activated carbon, the layer (B) comprises a solid base material impregnated with a permanganate salt, and the layer (C) comprises basically impregnated activated carbon, wherein the layers (B) and (C) are disposed in such a way that a gas flowing through the filter medium flows through the layer (B) before the layer (C), and the layer (A) is disposed in such a way that a gas flowing through the filter medium flows through the layer (A) before the layer (B) or through the layer (A) after the layer (C). layer (A) comprises non-impregnated activated carbon, the layer (B) comprises a solid base material impregnated with a permanganate salt, and the layer (C) comprises basically impregnated activated carbon, wherein the layers (B) and (C) are disposed in such a way that a gas flowing through the filter medium flows through the layer (B) before the layer (C), and the layer (A) is disposed in such a way that a gas flowing through the filter medium flows through the layer (A) before the layer (B) or through the layer (A) after the layer (C).
A fluid system comprising: a linear actuator ; a fluid pump assembly connected with the linear actuator , the fluid pump assembly to provide a fluid to operate the linear actuator , the fluid pump assembly including, a fluid pump that is a gear pump and has a casing defining an interior volume, the casing having an inlet port in fluid communication with the interior volume, and an outlet port in fluid communication with the interior volume, the fluid pump having least one fluid driver , each fluid driver having an electric motor , a control valve assembly comprising a control valve in fluid communication with the linear actuator , the control valve disposed on an upstream or a downstream side of the fluid pump ; and a controller , wherein the controller concurrently establishes at least one of a speed and a torque of the electric motor and an opening of the control valve to adjust at least one of a flow and a pressure in the fluid system to an operational set point. a linear actuator ; a fluid pump assembly connected with the linear actuator , the fluid pump assembly to provide a fluid to operate the linear actuator , the fluid pump assembly including, a fluid pump that is a gear pump and has a casing defining an interior volume, the casing having an inlet port in fluid communication with the interior volume, and an outlet port in fluid communication with the interior volume, the fluid pump having least one fluid driver , each fluid driver having an electric motor , a control valve assembly comprising a control valve in fluid communication with the linear actuator , the control valve disposed on an upstream or a downstream side of the fluid pump ; and a fluid pump that is a gear pump and has a casing defining an interior volume, the casing having an inlet port in fluid communication with the interior volume, and an outlet port in fluid communication with the interior volume, the fluid pump having least one fluid driver , each fluid driver having an electric motor , a control valve assembly comprising a control valve in fluid communication with the linear actuator , the control valve disposed on an upstream or a downstream side of the fluid pump ; and a controller , wherein the controller concurrently establishes at least one of a speed and a torque of the electric motor and an opening of the control valve to adjust at least one of a flow and a pressure in the fluid system to an operational set point.
A combiner, wherein the combiner comprises a conductive housing , a printed circuit board, PCB , a conductive column , a first conductor , and a second conductor , • wherein the PCB , the conductive column , the first conductor , and the second conductor are located inside the conductive housing , the second conductor having an annular structure; • wherein one end of the conductive column is fastened to a bottom part of the conductive housing , the PCB is fastened to a top part of the conductive housing , and the first conductor is fastened to the PCB , • wherein an axis of the first conductor , an axis of the second conductor , and an axis of the conductive column are collinear; • wherein an area of a cross section of the first conductor is greater than that of a cross section of the conductive column , and the other end of the conductive column extends into the first conductor , • wherein the second conductor is fastened to an inner side surface of the first conductor , the inner side surface of the first conductor being a surface along the axis of the first conductor and facing the conductive column , wherein furthermore a partial region of a side surface of the second conductor faces an end surface of the other end of the conductive column , so that the partial region of the side surface of the second conductor together with the end surface of the other end of the conductive column form a capacitive structure, the side surface of the second conductor being a surface perpendicular to the axis of the second conductor . • wherein the PCB , the conductive column , the first conductor , and the second conductor are located inside the conductive housing , the second conductor having an annular structure; • wherein one end of the conductive column is fastened to a bottom part of the conductive housing , the PCB is fastened to a top part of the conductive housing , and the first conductor is fastened to the PCB , • wherein an axis of the first conductor , an axis of the second conductor , and an axis of the conductive column are collinear; • wherein an area of a cross section of the first conductor is greater than that of a cross section of the conductive column , and the other end of the conductive column extends into the first conductor , • wherein the second conductor is fastened to an inner side surface of the first conductor , the inner side surface of the first conductor being a surface along the axis of the first conductor and facing the conductive column , wherein furthermore a partial region of a side surface of the second conductor faces an end surface of the other end of the conductive column , so that the partial region of the side surface of the second conductor together with the end surface of the other end of the conductive column form a capacitive structure, the side surface of the second conductor being a surface perpendicular to the axis of the second conductor .
Electric drive axle for a two-track motor vehicle, having a first half-shaft for driving a first wheel and a second half-shaft for driving a second wheel of the motor vehicle, wherein the first half-shaft is drivable via a first output wheel by a first electric machine and the second half-shaft is drivable via a second output wheel by a second electric machine , wherein at least one electric machine can be drive-connected to a wheel via a switching element , wherein the switching element has at least one first sliding sleeve which is arranged in a first drive path between the first output wheel and the first half-shaft coaxially to the first half-shaft and is axially displaceable, and which is designed to separate the first half shaft from the first output wheel in a first switching position (A) of the switching element and to establish a rotationally fixed connection between the first half shaft and the first output wheel in a second switching position (B) and/or third switching position (C) of the switching element , and wherein the switching element has at least one second sliding sleeve which is arranged in a second drive path between the second output wheel and the second half shaft coaxially to the second half shaft and is axially displaceable, and which is designed to separate the second half-shaft from the second output wheel in the first switching position (A) of the switching element and to establish a rotationally fixed connection between the second half-shaft and the second output wheel in the second switching position (B) and/or a third switching position (C) of the switching element , characterised in that the first sliding sleeve and the second sliding sleeve are firmly connected to one another via a connecting element .
A laundry treatment apparatus comprising: a housing ; a tub provided in the housing and including a tub body configured to store water; a drum provided in the tub to store an object to be washed; a driving unit located at an outside of a bottom surface of the tub to rotate the drum ; a heater configured to heat the water stored in the tub ; an accommodation unit located at the bottom surface of the tub that defines a recess at the bottom surface of the tub, and that is configured to accommodate the heater in the recess, and a drainage unit connected to a bottom surface of the accommodation unit to discharge water in the tub to the outside of the laundry treatment apparatus ; wherein a width of the housing is longer than a height of the housing ; and wherein the accommodation unit comprises a protruded portion that protrudes in a radial direction from the bottom surface of the tub to deviate from a radius (R) defined by a curved circumferential part of a side surface of the tub body . a housing ; a tub provided in the housing and including a tub body configured to store water; a drum provided in the tub to store an object to be washed; a driving unit located at an outside of a bottom surface of the tub to rotate the drum ; a heater configured to heat the water stored in the tub ; an accommodation unit located at the bottom surface of the tub that defines a recess at the bottom surface of the tub, and that is configured to accommodate the heater in the recess, and a drainage unit connected to a bottom surface of the accommodation unit to discharge water in the tub to the outside of the laundry treatment apparatus ; wherein a width of the housing is longer than a height of the housing ; and wherein the accommodation unit comprises a protruded portion that protrudes in a radial direction from the bottom surface of the tub to deviate from a radius (R) defined by a curved circumferential part of a side surface of the tub body .
A heating device of a stretch blowing machine and for producing hollow plastic bodies with a tool mold having a cavity and an outer mold surrounding the tool mold for the tool mold , wherein the outer mold has at least one or more inductors, wherein the at least one inductor or the inductors is/are connected to an induction generator in order to actuate the inductor(s) , characterized in that the at least one or the multiple inductors each have an annular coil , wherein the coil is arranged between a core and an annular body , and the core and the annular body are magnetic field orienting bodies which have ferritic material and have an annular or tubular configuration, and wherein the core and the annular body are connected via a base plate having a disk-shaped or plate-shaped configuration as a further magnetic field orienting body.
A floating disc brake comprising: a support that is fixed to a vehicle body and is adjacent to a rotor that rotates together with a wheel; an inner pad provided on an axially inner side (I) relative to the rotor; an outer pad provided on an axially outer side (O) relative to the rotor; and a yoke supported to the support in an axially movable manner, the yoke including a pad support portion that supports the outer pad on an axially outer side (O) of the outer pad , wherein the outer pad includes, on its axially outer surface, a pair of pad-side engagement portions formed of an elastic material, wherein the pad support portion has a support hole that is open on at least an axially inner surface of the pad support portion , and the support hole is provided with a pair of yoke-side engagement portions on inner side surfaces of the support hole that face each other in a circumferential direction, and wherein the pair of pad-side engagement portions and the pair of yoke-side engagement portions are concavo-convex engaged with each other in the circumferential direction, characterised in that the support hole is a bottomed hole that is not open on an axially outer surface of the pad support portion . a support that is fixed to a vehicle body and is adjacent to a rotor that rotates together with a wheel; an inner pad provided on an axially inner side (I) relative to the rotor; an outer pad provided on an axially outer side (O) relative to the rotor; and a yoke supported to the support in an axially movable manner, the yoke including a pad support portion that supports the outer pad on an axially outer side (O) of the outer pad , wherein the outer pad includes, on its axially outer surface, a pair of pad-side engagement portions formed of an elastic material, wherein the pad support portion has a support hole that is open on at least an axially inner surface of the pad support portion , and the support hole is provided with a pair of yoke-side engagement portions on inner side surfaces of the support hole that face each other in a circumferential direction, and wherein the pair of pad-side engagement portions and the pair of yoke-side engagement portions are concavo-convex engaged with each other in the circumferential direction, characterised in that the support hole is a bottomed hole that is not open on an axially outer surface of the pad support portion .
A method for purifying air from non-desired gases, microorganisms, droplets, particles of nano size and larger in a purifying chamber comprising a water dust zone and a subsequent ion blast chamber , which method comprises: ionizing air coming to purification in an ionization chamber which is located in an inlet end of the purifying chamber, after which the air is led through the water dust zone and subsequently through the ion blast chamber in which ion jets are rushed from ion blast tips , wherein droplet-shaped or particulate materials included in the air to be purified and flowed through the ion jets from the ion blast tips are thrown onto grounded collecting surfaces , and mass collected on the collecting surfaces flows to a bottom of the purifying chamber and from there to drainage simultaneously as the purified air is led out of the purifying chamber, characterized in that : before the ionization step, the air coming to purification is led into contact with gas sensors , and an electricity and control centre determines a voltage for the ionization based on signals from said gas sensors , and wherein the voltage for the ionization is a negative or positive voltage in the range 10 kV to 36 kV; wherein the water to be used for the water dust in the water dust zone is oxidized with hydrogen peroxide in order to intensify removal of gases and extermination of microbes. ionizing air coming to purification in an ionization chamber which is located in an inlet end of the purifying chamber, after which the air is led through the water dust zone and subsequently through the ion blast chamber in which ion jets are rushed from ion blast tips , wherein droplet-shaped or particulate materials included in the air to be purified and flowed through the ion jets from the ion blast tips are thrown onto grounded collecting surfaces , and mass collected on the collecting surfaces flows to a bottom of the purifying chamber and from there to drainage simultaneously as the purified air is led out of the purifying chamber, characterized in that : before the ionization step, the air coming to purification is led into contact with gas sensors , and an electricity and control centre determines a voltage for the ionization based on signals from said gas sensors , and wherein the voltage for the ionization is a negative or positive voltage in the range 10 kV to 36 kV; wherein the water to be used for the water dust in the water dust zone is oxidized with hydrogen peroxide in order to intensify removal of gases and extermination of microbes. before the ionization step, the air coming to purification is led into contact with gas sensors , and an electricity and control centre determines a voltage for the ionization based on signals from said gas sensors , and wherein the voltage for the ionization is a negative or positive voltage in the range 10 kV to 36 kV; wherein the water to be used for the water dust in the water dust zone is oxidized with hydrogen peroxide in order to intensify removal of gases and extermination of microbes.
A container raising/lowering conveyance apparatus, wherein at least two lifting raising/lowering bodies (65A and 65B), configured to respectively correspond to two parallel side surfaces of an article-conveyance container (C) with a right-angled parallelogram planar shape, are supported by a supporting structure so as to be capable of being raised and lowered and capable of being moved closer to and away from each other, characterized in that support units , which are configured to respectively face the two parallel side surfaces of the container (C), are attached to each of the lifting raising/lowering bodies (65A and 65B), and pairs of pin-shaped supporting implements (76a and 76b) are arranged and supported at suitable intervals in a vertical direction in each of the support units , with each pair being configured to protrude towards the container (C) side at symmetrical positions at both sides of a vertical center line of each of the two parallel side surfaces of the container (C), each of the pin-shaped supporting implements (76a and 76b) being capable of extending and retracting and is impelled into and held in a protruded position by a spring , and pairs of pin-shaped supporting implements having a narrow interval therebetween and pairs of pin-shaped supporting implements having a broad interval therebetween being arranged alternately in the vertical direction.
A blood processing filter comprising: a container housing a filter element for blood processing, wherein said filter element comprises a nonwoven fabric obtained by melt-blowing a polymer and further heat-treating for a heating time of at least 3 seconds or longer where the temperature of the heat source fulfils formula (I) temperature of the heat source ≥ melting point of the polymer − 120 ° C , and having a quantity of crystallization heat of the uncrystallized portion of the nonwoven fabric, determined by differential scanning calorimetry (DSC) as described in the description, of 5 J/g or smaller before steam heat treatment at a temperature of 100 °C or higher. a container housing a filter element for blood processing, wherein said filter element comprises a nonwoven fabric obtained by melt-blowing a polymer and further heat-treating for a heating time of at least 3 seconds or longer where the temperature of the heat source fulfils formula (I) temperature of the heat source ≥ melting point of the polymer − 120 ° C , and having a quantity of crystallization heat of the uncrystallized portion of the nonwoven fabric, determined by differential scanning calorimetry (DSC) as described in the description, of 5 J/g or smaller before steam heat treatment at a temperature of 100 °C or higher.