mhurhangee/patent-ind-claim-en huggingface dataset:
A device for packaging and applying a stick of product, notably a cosmetic product, comprising: a case ; an external protective shell mounted on the case and provided on the interior surface thereof with at least one helical groove ; a tubular element mounted to rotate freely in said external protective shell , while being held axially relative to said shell and provided with at least one longitudinal groove ; and a cup for supporting the stick of product mounted to slide in said tubular element between a storage position, in which the stick is at least in part accommodated inside the tubular element , and a use position, in which at least a part of the stick projects from the external shell , the cup comprising at least one stud engaged in the helical groove and the longitudinal groove : the cup comprising a lower cup carrying the stud and an upper cup carrying the stick of product, one of the upper cup and the lower cup comprising an axial projection extending axially toward the other of the upper cup and the lower cup , and the device comprising: a system for locking/unlocking the upper cup with the lower cup movable between a locked position, in which the axial projection interacts with said system , and an unlocked position, in which the axial projection is free relative to said system , characterised in that said system can be actuated from the unlocked position toward the locked position and vice versa via axial movement of the upper cup toward the lower cup . a case ; an external protective shell mounted on the case and provided on the interior surface thereof with at least one helical groove ; a tubular element mounted to rotate freely in said external protective shell , while being held axially relative to said shell and provided with at least one longitudinal groove ; and a cup for supporting the stick of product mounted to slide in said tubular element between a storage position, in which the stick is at least in part accommodated inside the tubular element , and a use position, in which at least a part of the stick projects from the external shell , the cup comprising at least one stud engaged in the helical groove and the longitudinal groove : the cup comprising a lower cup carrying the stud and an upper cup carrying the stick of product, one of the upper cup and the lower cup comprising an axial projection extending axially toward the other of the upper cup and the lower cup , and the device comprising: a system for locking/unlocking the upper cup with the lower cup movable between a locked position, in which the axial projection interacts with said system , and an unlocked position, in which the axial projection is free relative to said system , characterised in that said system can be actuated from the unlocked position toward the locked position and vice versa via axial movement of the upper cup toward the lower cup .
A torque power tool for tightening and/or loosening of an industrial threaded fastener including: a motor to generate a turning force; a drive to transfer the turning force; a turning force multiplication mechanism assembly; and a yoke-style shifter assembly to shift the tool into any torque mode from lower and/or higher resistance and/or speed, the yoke-style shifter assembly including: a mode shifter switch ; a shifter yoke ; and a shifter ring gear , characterized by a shifter rod formed between the mode selector switch and the shifter yoke . a motor to generate a turning force; a drive to transfer the turning force; a turning force multiplication mechanism assembly; and a yoke-style shifter assembly to shift the tool into any torque mode from lower and/or higher resistance and/or speed, the yoke-style shifter assembly including: a mode shifter switch ; a shifter yoke ; and a shifter ring gear , characterized by a shifter rod formed between the mode selector switch and the shifter yoke . a mode shifter switch ; a shifter yoke ; and a shifter ring gear , characterized by
A honeycomb structure for a catalyst carrier comprising: porous partition walls having a large number of pores and arranged so as to form a plurality of cells which connect two end faces to each other; and plugging portions arranged so as to alternately plug one of the end portions of each of the cells in the two end faces , characterized in that a geometrical surface area (GSA: a value ((S1+S2)/V) obtained by dividing a total of the whole inner surface area (S1) excluding the pores of the porous partition walls and the whole inner surface area (S2) of the pores of the porous partition walls by the whole volume (V) of the honeycomb structure) is 80 cm 2 /cm 3 or more and less than 300 cm 2 /cm 3 , wherein S2/V is calculated as equal to 60ε(1-OFA)/Dp, in which Dp (mm) is an average pore diameter, OFA is an open frontal area of the honeycomb structure , and ε is a porosity of the honeycomb structure ; and wherein the average pore diameter is calculated by taking SEM photographs of at least 20 fields of view of a partition wall section, each field of view having a size of vertical×lateral of t×t, in which t is the partition wall thickness and subsequently a maximum linear distance in a void of each observed field of view is measured, and an average value of the maximum linear distances is measured with respect to all the fields of view, this average value defined as an image maximum distance average and deemed to be the average pore diameter; and wherein the porosity is calculated by taking SEM photographs of at least five fields of view of a partition wall section, each field of view having a size of vertical×lateral of t×t, in which t is a partition wall thickness, and in each field of view a void area percentage is obtained, followed by raising the ratio to the 3/2 power, the thus obtained values of all the fields of view are averaged, and the resultant average is deemed to be the porosity.
Method for the ultrasonic testing of a test object , comprising the steps of: - moving a test head along a test object surface and emitting ultrasound pulses into the test object by means of the test head ; - receiving respective echo signals corresponding to the emitted ultrasound pulses by means of the test head ; - compiling an image of a predetermined test region of the test object on the basis of superposition and averaging of amplitude values of the received echo signals by means of a data-processing device ; - detecting the respective position of the test head during emission of the ultrasound signals and/or during reception of the corresponding echo signals by means of a detecting device; - taking the respectively detected positions of the test head into account during generation of the image of the test region of the test object ; characterized in that the central position of the active aperture of the test head during emission of the ultrasound signals is determined with the aid of the detected position and orientation of the test head and is taken into account during generation of the image of the test region of the test object , wherein an active aperture is intended to mean that region of the test head which is used as an active emission or reception surface for the ultrasound pulses or the echo signals, respectively. - moving a test head along a test object surface and emitting ultrasound pulses into the test object by means of the test head ; - receiving respective echo signals corresponding to the emitted ultrasound pulses by means of the test head ; - compiling an image of a predetermined test region of the test object on the basis of superposition and averaging of amplitude values of the received echo signals by means of a data-processing device ; - detecting the respective position of the test head during emission of the ultrasound signals and/or during reception of the corresponding echo signals by means of a detecting device; - taking the respectively detected positions of the test head into account during generation of the image of the test region of the test object ;
Low-voltage circuit-breaker device having at least one outer conductor path from an outer conductor supply connection of the low-voltage circuit-breaker device to an outer conductor load connection of the low-voltage circuit-breaker device , wherein a mechanical bypass switch is arranged in the outer conductor path , wherein a first semiconductor circuit arrangement of the low-voltage circuit-breaker device is connected in parallel with the bypass switch , wherein a current measurement arrangement is arranged in the outer conductor path , which is connected to an electronic control unit of the circuit-breaker device , wherein the electronic control unit is configured to control the bypass switch and the first semiconductor circuit arrangement , wherein a second semiconductor circuit arrangement is arranged in series with the bypass switch and in parallel with the first semiconductor circuit arrangement in the outer conductor path , characterized in that the low-voltage circuit-breaker device is further provided with a neutral conductor path from a neutral conductor connection of the low-voltage circuit-breaker device to a neutral conductor load connection of the low-voltage circuit-breaker device , and the electronic control unit is configured, in the event of a current arising via the outer conductor path that is higher than the rated current but lower than a tripping overcurrent, in particular a short circuit, to first close the first semiconductor circuit arrangement , then to block the second semiconductor circuit arrangement , and subsequently to alternately connect the first semiconductor circuit arrangement and the second semiconductor circuit arrangement in a prespecifiable manner, and in this way to guide the current flow alternately via the first semiconductor circuit arrangement and the second semiconductor circuit arrangement .
An electric fader drive unit comprising: a drive portion that is adapted to drive an electric fader by supplying drive power to the electric fader ; a fader position control portion that is adapted to indicate a target position (F1, F2) of the electric fader ; and an electric fader control portion that is adapted to receive an indication of the target position (F1, F2) from the fader position control portion , and, when controlling the drive portion to move the electric fader to the target position (F1, F2), is adapted to move the electric fader to the target position (F1, F2) by changing the drive power from a preparation drive power (Ppre), less than a minimum drive power (Pmin) that is a lowest drive power required for moving the electric fader , to a predetermined drive power (Pb, Ps, Pb1, Pb2) not less than the minimum drive power (Pmin) ; characterized in that the electric fader control portion is further adapted to increase the drive power from 0 to the preparation drive power (Ppre) over a first predetermined time (Tpre), and to change the drive power from the preparation drive power (Ppre) to the predetermined drive power (Pb, Ps, Pb1, Pb2) after the first predetermined time (Tpre) elapses, so as to move the electric fader to the target position (F1, F2). a drive portion that is adapted to drive an electric fader by supplying drive power to the electric fader ; a fader position control portion that is adapted to indicate a target position (F1, F2) of the electric fader ; and an electric fader control portion that is adapted to receive an indication of the target position (F1, F2) from the fader position control portion , and, when controlling the drive portion to move the electric fader to the target position (F1, F2), is adapted to move the electric fader to the target position (F1, F2) by changing the drive power from a preparation drive power (Ppre), less than a minimum drive power (Pmin) that is a lowest drive power required for moving the electric fader , to a predetermined drive power (Pb, Ps, Pb1, Pb2) not less than the minimum drive power (Pmin) ; characterized in that the electric fader control portion is further adapted to increase the drive power from 0 to the preparation drive power (Ppre) over a first predetermined time (Tpre), and to change the drive power from the preparation drive power (Ppre) to the predetermined drive power (Pb, Ps, Pb1, Pb2) after the first predetermined time (Tpre) elapses, so as to move the electric fader to the target position (F1, F2).
An electronic control unit connected to an in-vehicle network bus in an in-vehicle network system , the in-vehicle network system including a plurality of apparatuses that perform communication of frames via the in-vehicle network bus , the electronic control unit comprising: a first control circuit ; and a second control circuit , wherein the first control circuit is connected to the in-vehicle network bus via the second control circuit over wired communication and/or wireless communication, wherein the first control circuit is configured to perform a first determination process (S1600, S4600, S5600) on a transmit frame that is transmitted to the in-vehicle network bus , to determine a conformity of the transmit frame with a first rule, wherein, upon determining that the transmit frame conforms to the first rule, the first control circuit is configured to transmit the transmit frame to the second control circuit , wherein, upon determining that the transmit frame does not conform to the first rule, the first control circuit is configured not to transmit the transmit frame to the second control circuit , wherein the second control circuit is configured to perform a second determination process (S1300, S4600, S5300) on the transmit frame, received from the first control circuit , to determine a conformity of the transmit frame with a second rule, and, upon determining that the transmit frame conforms to the second rule, is configured to transmit the transmit frame to the in-vehicle network bus , and wherein upon determining that the transmit frame does not conform to the second rule, the second control circuit is configured not to transmit the transmit frame to the in-vehicle network bus . a first control circuit ; and a second control circuit , wherein the first control circuit is connected to the in-vehicle network bus via the second control circuit over wired communication and/or wireless communication, wherein the first control circuit is configured to perform a first determination process (S1600, S4600, S5600) on a transmit frame that is transmitted to the in-vehicle network bus , to determine a conformity of the transmit frame with a first rule, wherein, upon determining that the transmit frame conforms to the first rule, the first control circuit is configured to transmit the transmit frame to the second control circuit , wherein, upon determining that the transmit frame does not conform to the first rule, the first control circuit is configured not to transmit the transmit frame to the second control circuit , wherein the second control circuit is configured to perform a second determination process (S1300, S4600, S5300) on the transmit frame, received from the first control circuit , to determine a conformity of the transmit frame with a second rule, and, upon determining that the transmit frame conforms to the second rule, is configured to transmit the transmit frame to the in-vehicle network bus , and wherein upon determining that the transmit frame does not conform to the second rule, the second control circuit is configured not to transmit the transmit frame to the in-vehicle network bus .
A bicycle frame comprising: - a front triangle ; - a rear frame articulated to the front triangle ; - a body associated to the front triangle and mobile with respect to the front triangle ; - a bottom bracket rotatably associated to the body about a first rotation axis (B); wherein the rear frame is articulated to the body about a second rotation axis (C) parallel and offset to the first rotation axis (B) and wherein the body is articulated to the front triangle by means of two connecting rods , forming a four-bar linkage, each of which is hinged to the body , with respect to respective rotation axes parallel to one another and parallel and offset with respect to the first rotation axis (B), and to the front triangle , characterized in that the body is mobile with respect to the front triangle between a predefined first front stop position (X) and a predefined second rear stop position (Y); and in that the bicycle frame further comprises: - an actuator and blocking configured to move the body with respect to the front triangle between the first front stop position (X) and the second rear stop position (Y) and to stop the body in at least one of the first front stop position (X) and the stop rear second position (Y) and any intermediate position there-between, wherein the actuator and blocking group comprises a hydraulic/pneumatic cylinder constituted by a slider , having a piston at an end thereof, slidably associated to a cylinder . - a front triangle ; - a rear frame articulated to the front triangle ; - a body associated to the front triangle and mobile with respect to the front triangle ; - a bottom bracket rotatably associated to the body about a first rotation axis (B); - an actuator and blocking configured to move the body with respect to the front triangle between the first front stop position (X) and the second rear stop position (Y) and to stop the body in at least one of the first front stop position (X) and the stop rear second position (Y) and any intermediate position there-between, wherein the actuator and blocking group comprises a hydraulic/pneumatic cylinder constituted by a slider , having a piston at an end thereof, slidably associated to a cylinder .
An automatic swimming pool cleaner comprising: a. a body including a fluid inlet and a fluid outlet ; b. a debris filter , at least a portion of which is positioned between the fluid inlet and the fluid outlet ; and c. a pressure sensor assembly, comprising a differential pressure sensor assembly, configured to evidence accumulation of debris in the debris filter, characterised in that the differential pressure sensor assembly comprises : a. a magnet ; and b. means, comprising a Hall effect sensor or a reed switch, configured to interact with the magnet . a. a body including a fluid inlet and a fluid outlet ; b. a debris filter , at least a portion of which is positioned between the fluid inlet and the fluid outlet ; and c. a pressure sensor assembly, comprising a differential pressure sensor assembly, configured to evidence accumulation of debris in the debris filter, a. a magnet ; and b. means, comprising a Hall effect sensor or a reed switch, configured to interact with the magnet .
Device for aerating liquids, which device comprises - at least one linear aerator for the introduction of gas into a liquid, the linear aerator having at least one tube with at least one introduction opening , characterized in that the device comprises, furthermore: - a fixing plate with a planar upper side , - at least one groove which is recessed into the upper side of the fixing plate and in which at least one portion of the linear aerator is received and fixed. - at least one linear aerator for the introduction of gas into a liquid, the linear aerator having at least one tube with at least one introduction opening , - a fixing plate with a planar upper side , - at least one groove which is recessed into the upper side of the fixing plate and in which at least one portion of the linear aerator is received and fixed.
A clamping lever for attaching machining tools to a rotatably mounted element of a printing press, comprising a base body , wherein, on the one hand, the base body has a receiving device for a machining tool and, on the other hand, is formed to partially encompass the rotatably supported element , and a clamping plate , wherein the clamping plate has a fastening device for fastening the clamping plate to the base body in such a way that the clamping lever is fixed to the rotatably mounted element , characterized in that the base body moreover has a recess , and the clamping plate has a molding in the form of a clamping lug , wherein in the fixed position of the clamping lever at the rotatably mounted element , the clamping lug is arranged in a positive manner in the recess .
A method for conditional handover, CHO, performed by a terminal device, the method comprising: receiving (S410) CHO configuration information and measurement configuration information of a source cell; performing (S420) CHO processing according to the CHO configuration information; wherein the measurement configuration information of the source cell comprises a measurement configuration identification, ID, of the source cell; and characterized in that performing (S420) CHO processing according to the CHO configuration information comprises: determining all measurement configuration parameters of the source cell corresponding to the measurement configuration ID of the source cell; performing a measurement according to the all measurement configuration parameters of the source cell to obtain a measurement result; and performing or not performing cell handover according to a CHO execution condition in the CHO configuration information corresponding to the measurement configuration ID and the measurement result. receiving (S410) CHO configuration information and measurement configuration information of a source cell; performing (S420) CHO processing according to the CHO configuration information; wherein the measurement configuration information of the source cell comprises a measurement configuration identification, ID, of the source cell; and characterized in that performing (S420) CHO processing according to the CHO configuration information comprises: determining all measurement configuration parameters of the source cell corresponding to the measurement configuration ID of the source cell; performing a measurement according to the all measurement configuration parameters of the source cell to obtain a measurement result; and performing or not performing cell handover according to a CHO execution condition in the CHO configuration information corresponding to the measurement configuration ID and the measurement result. determining all measurement configuration parameters of the source cell corresponding to the measurement configuration ID of the source cell; performing a measurement according to the all measurement configuration parameters of the source cell to obtain a measurement result; and performing or not performing cell handover according to a CHO execution condition in the CHO configuration information corresponding to the measurement configuration ID and the measurement result.
A dilator , comprising: a tubular member composed of a flexible material, the tubular member forming a channel when in an open state; a plurality of wires extending inwardly from an interior of the tubular member into the channel ; a string attached, centered, passing through to the plurality of wires and extending through the channel ; and a handle attached to the string; wherein pulling the handle applies force to the string; wherein the tubular member in a recoiled state of the wires provides for dilation of a canal, characterized in that in use force applied to the string causes the string to disengage and release from the plurality of wires such that the plurality of wires recoils against the interior of the tubular member such that the tubular member takes on a diameter of a predetermined dimension. a tubular member composed of a flexible material, the tubular member forming a channel when in an open state; a plurality of wires extending inwardly from an interior of the tubular member into the channel ; a string attached, centered, passing through to the plurality of wires and extending through the channel ; and a handle attached to the string; wherein pulling the handle applies force to the string; wherein the tubular member in a recoiled state of the wires provides for dilation of a canal, characterized in that in use force applied to the string causes the string to disengage and release from the plurality of wires such that the plurality of wires recoils against the interior of the tubular member such that the tubular member takes on a diameter of a predetermined dimension.