mhurhangee/patent-ind-claim-en huggingface dataset:
A polyaxial pedicle screw comprising a screw anchor , which has a threaded shaft and a head , and comprising a fork head , which is U-shaped in side view and has a receiving opening for a corrective element, in particular a correcting rod, and two arms , wherein the head of the screw anchor is polyaxially pivotably mounted in a distal end region of the fork head and the fork head can be fixed in a pivoted position intended by the surgeon relative to the head of the screw anchor that is fixed or can be fixed in the bone, wherein the fork head has an axial direction and a direction radial to this as well as a distal end adjacent to the screw anchor and has a proximal end facing away from this in the axial direction , so that a distal direction and a proximal direction are defined as well, wherein the arms starting from a distal region of the fork head extend in the proximal direction and terminate with proximally free ends and delimit the receiving opening for the corrective element between them, wherein the arms have a radially outer peripheral region, in which at least one retaining groove or other instrument placement location is formed in order to engage the fork head via a handling instrument, and comprising a pressure piece which can be arranged in the fork head between the head of the screw anchor and the corrective element which, on the one hand, rests on the head of the screw anchor and, on the other hand, can be loaded by the corrective element, wherein a force can be exerted temporarily on the pressure piece in the direction of the head of the screw anchor via the handling instrument engaging on the fork head or via another instrument so that the fork head is temporarily fixed by this in a pivoted position intended by the surgeon relative to the head of the screw anchor , whereas the corrective element remains movable as long as the corrective element, the fork head , the pressure piece and the head of the screw anchor are durably fixed in a desired position and orientation with respect to one another via another adjusting means, wherein the pressure piece in the region of an arm of the fork head is supported by means of a pivot bearing against this arm in the axial direction and characterized in that a positioning force acting in the axial direction is exerted onto the pressure piece at only one single place diametrically opposite the pivot bearing , by the pressure piece having a receiving region diametrically opposite the pivot bearing for the positioning force acting in the axial direction so as to pivot the pressure piece in the distal direction relative to the pivot bearing and thereby exerting the temporarily acting force in the direction of the head of the screw anchor , and that the fork head has an access recess in precisely one of the arms , through which the receiving region of the pressure piece can be accessed via the handling instrument or another instrument.
An aerosol hairspray product, which comprises: a) a pressurisable container comprising i) a container wall which encloses a reservoir for storing a hairstyling formulation, and ii) a propellant; b) a hairstyling formulation comprising: (iii) from 20 wt % to 75 wt % water, by total weight of the hairstyling formulation and propellant; and (iv) from 1.0 wt % to 15 wt % hairstyling polymer, by total weight of the hairstyling formulation and propellant; and c) a spraying device attached to the container for dispensing the hairstyling formulation from the reservoir of the container, which comprises a valve and an actuator, wherein the valve comprises a valve body, said valve body comprising a stem and a spring means; and wherein the valve comprises a restricted tail piece (RTP) of diameter 0.1 mm to 2.5 mm, and a vapour phase tap (VPT) of diameter 0.1 mm to 1.5 mm; wherein the actuator comprises a main spray channel and communicates with an insert, said insert comprising an exit orifice and from 1 to 8 sub-spray channels; wherein said channels are tangentially disposed about the exit orifice; wherein the exit orifice is capable of being in liquid communication with the hairstyling formulation in the reservoir; characterised in that the exit orifice has a diameter of from 0.01 to 2 mm; and an orifice thickness of from 0.1 to 1.5 mm; and wherein the sub-spray channels have a height of from 0.1 to 0.8 mm and a length of from 0.1 to 0.5mm. a) a pressurisable container comprising i) a container wall which encloses a reservoir for storing a hairstyling formulation, and ii) a propellant; i) a container wall which encloses a reservoir for storing a hairstyling formulation, and ii) a propellant; b) a hairstyling formulation comprising: (iii) from 20 wt % to 75 wt % water, by total weight of the hairstyling formulation and propellant; and (iv) from 1.0 wt % to 15 wt % hairstyling polymer, by total weight of the hairstyling formulation and propellant; and (iii) from 20 wt % to 75 wt % water, by total weight of the hairstyling formulation and propellant; and (iv) from 1.0 wt % to 15 wt % hairstyling polymer, by total weight of the hairstyling formulation and propellant; and c) a spraying device attached to the container for dispensing the hairstyling formulation from the reservoir of the container, which comprises a valve and an actuator,
A volumetric computed tomography (VCT)-based method for providing notification of a potential defect in a composite part, comprising: obtaining VCT scan data representing a three-dimensional volume of the composite part; normalizing the 3D volume against a generated background of the composite part that includes beam hardening and/or scattering artifacts; detecting an indication of the potential defect in the normalized 3D volume; and outputting information about the indication, the method further comprising: determining a boundary of the detected indication based at least in part on a computer-aided design (CAD) model, wherein the information about the indication includes information about the boundary, wherein determining the boundary comprises identifying a seed voxel of the indication; and performing region growing around the seed voxel; and wherein the CAD model is a ply model of the composite part, and growth of the region around the seed voxel is constrained by the ply model. obtaining VCT scan data representing a three-dimensional volume of the composite part; normalizing the 3D volume against a generated background of the composite part that includes beam hardening and/or scattering artifacts; detecting an indication of the potential defect in the normalized 3D volume; and outputting information about the indication, the method further comprising: determining a boundary of the detected indication based at least in part on a computer-aided design (CAD) model, wherein the information about the indication includes information about the boundary, wherein determining the boundary comprises identifying a seed voxel of the indication; and performing region growing around the seed voxel; and wherein the CAD model is a ply model of the composite part, and growth of the region around the seed voxel is constrained by the ply model. determining a boundary of the detected indication based at least in part on a computer-aided design (CAD) model, wherein the information about the indication includes information about the boundary, wherein determining the boundary comprises identifying a seed voxel of the indication; and performing region growing around the seed voxel; and wherein the CAD model is a ply model of the composite part, and growth of the region around the seed voxel is constrained by the ply model.
A method for heating a liquid in a heater , wherein the heater comprises a heating element , wherein the method comprises (i) heating the liquid in the heater wherein the heating element is in contact with the liquid , and (ii) applying a potential difference between the heating element and a counter electrode , wherein the potential difference has an AC component whereby the potential difference varies with an AC frequency (f) in the range of 0.01-100 Hz and wherein the potential difference is applied with a cycle time and a duty cycle, wherein the potential difference has a sign during a first part of the cycle time that is opposite of the sign of the potential difference during a second part of the cycle time, characterized in modulating the AC component with a pulse that reverses the signal at a pulse frequency (fp), such that during one or more of the first part of the cycle time and the second part of the cycle time, the potential difference temporarily changes sign with the pulse frequency (fp) in the range of 50-2500 Hz, wherein the pulse frequency (fp) and the frequency (f) of the AC component have a relation fp/f>2.
A receiver configured to receive, by means of a frequency hopping method, a radio signal carrying information, the radio signal comprising an overall frequency band f 1 to f 6 having at least three different sub carriers f 1 , f 2 , f 3 , wherein the receiver is further configured to receive, during a first frequency hop interval T hop1 , a first multitone signal carrying a first portion of the radio signal, said first multitone signal comprising a first and a second sub carrier (110 1 , 110 2 ) which are received simultaneously, determine a first phase difference Φ 21 = Φ 2 - Φ 1 between the first and the second sub carrier (110 1 , 110 2 ) of the first multitone signal , receive, during a second frequency hop interval T hop2 , a second multitone signal carrying a second portion of the radio signal, said second multitone signal comprising one of the first and the second sub carriers (110 1 , 110 2 ) and a third sub carrier (110 3 ) which are received simultaneously, determine a second phase difference Φ 32 = Φ 3 - Φ 2 between the one of the first and the second sub carriers (110 1 , 110 2 ) and the third sub carrier (110 3 ) of the second multitone signal , and reconstruct a phase coherency of the radio signal by means of linking the phase differences Φ 21 and Φ 32 of the first and the second multitone signals . receive, during a first frequency hop interval T hop1 , a first multitone signal carrying a first portion of the radio signal, said first multitone signal comprising a first and a second sub carrier (110 1 , 110 2 ) which are received simultaneously, determine a first phase difference Φ 21 = Φ 2 - Φ 1 between the first and the second sub carrier (110 1 , 110 2 ) of the first multitone signal , receive, during a second frequency hop interval T hop2 , a second multitone signal carrying a second portion of the radio signal, said second multitone signal comprising one of the first and the second sub carriers (110 1 , 110 2 ) and a third sub carrier (110 3 ) which are received simultaneously, determine a second phase difference Φ 32 = Φ 3 - Φ 2 between the one of the first and the second sub carriers (110 1 , 110 2 ) and the third sub carrier (110 3 ) of the second multitone signal , and reconstruct a phase coherency of the radio signal by means of linking the phase differences Φ 21 and Φ 32 of the first and the second multitone signals .
A wet electrolytic capacitor comprising: a casing that contains a sidewall extending to an upper end to define an opening, wherein the sidewall further defines an inner surface that surrounds an interior; at least one anode and at least one cathode positioned within the interior of the casing , wherein the cathode contains an electrochemically-active material and further wherein an anode lead extends from the anode ; a working electrolyte that is in electrical contact with the anode and the electrochemically-active material; a lid assembly that contains a lid positioned on an upper end of the casing sidewall , wherein the lid defines an orifice through which a tube extends, wherein the tube accommodates the anode lead that extends from the anode , and further wherein a dielectric layer is formed on a surface of the tube . a casing that contains a sidewall extending to an upper end to define an opening, wherein the sidewall further defines an inner surface that surrounds an interior; at least one anode and at least one cathode positioned within the interior of the casing , wherein the cathode contains an electrochemically-active material and further wherein an anode lead extends from the anode ; a working electrolyte that is in electrical contact with the anode and the electrochemically-active material; a lid assembly that contains a lid positioned on an upper end of the casing sidewall , wherein the lid defines an orifice through which a tube extends,
An arrangement for mounting a drive, in particular for a motor vehicle, preferably a utility vehicle, comprising: a carrier structure , in particular a crossmember structure; an, in particular electric, drive unit which is attached in a three-point mounting at a bottom side and/or from below to the carrier structure ; a plurality of bearing units , in particular exactly three bearing units, which are attached to a bottom side and/or from below to the carrier structure and which carry the drive unit , characterised in that the plurality of bearing units each comprise a supporting arm and at least one elastomeric element ; the supporting arm is made of a plastic, in particular a fibre-reinforced plastic, preferably a glass-fibre reinforced plastic; and the at least one elastomeric element is directly fastened to the carrier structure . a carrier structure , in particular a crossmember structure; an, in particular electric, drive unit which is attached in a three-point mounting at a bottom side and/or from below to the carrier structure ; a plurality of bearing units , in particular exactly three bearing units, which are attached to a bottom side and/or from below to the carrier structure and which carry the drive unit , the plurality of bearing units each comprise a supporting arm and at least one elastomeric element ; the supporting arm is made of a plastic, in particular a fibre-reinforced plastic, preferably a glass-fibre reinforced plastic; and the at least one elastomeric element is directly fastened to the carrier structure .
Method for adapting a power limitation of an internal combustion engine of a hybrid vehicle, comprising - sensing a currently supplied power level of the internal combustion engine P and a current velocity V of the hybrid vehicle; - sensing an ambient temperature T env of the hybrid vehicle and determining an associated ambient-temperature-related weighting factor G t ; - sensing an air pressure Pr env in the surroundings of the motor vehicle and determining an associated air-pressure-related weighting factor G p ; - determining a thermal load indicator STC as a function of a ratio R pv of the sensed currently supplied power level P and the sensed current velocity V as well as of the ambient-temperature-related weighting factor G t , the air-pressure-related weighting factor G p and a vehicle-bodywork-related weighting factor G k ; and - limiting a maximum supplied power level of the internal combustion engine as a function of the determined thermal load indicator STC. - sensing a currently supplied power level of the internal combustion engine P and a current velocity V of the hybrid vehicle; - sensing an ambient temperature T env of the hybrid vehicle and determining an associated ambient-temperature-related weighting factor G t ; - sensing an air pressure Pr env in the surroundings of the motor vehicle and determining an associated air-pressure-related weighting factor G p ; - determining a thermal load indicator STC as a function of a ratio R pv of the sensed currently supplied power level P and the sensed current velocity V as well as of the ambient-temperature-related weighting factor G t , the air-pressure-related weighting factor G p and a vehicle-bodywork-related weighting factor G k ; and - limiting a maximum supplied power level of the internal combustion engine as a function of the determined thermal load indicator STC.
Apparatus for producing three-dimensional objects by successively solidifying layers of a building material that can be solidified by means of radiation at the locations corresponding to the respective cross section of the object, with - a housing comprising a process chamber, - a building container accommodated therein, - an irradiation apparatus for irradiating layers of the building material at the locations corresponding to the respective cross section of the object, - an application apparatus for applying the layers of the building material to a supporting apparatus in the building container or to a previously formed layer, - a metering device for supplying the building material, wherein the application apparatus comprises a coater element, which distributes the building material supplied by the metering device as a thin layer in an application area along a linear application movement, characterised in that , at the end of a coating process for one layer, upon the return of the coater element to a coating starting position, the coater element executes or can execute an evasion/return movement (A, R, Z), in which the coater element does not cross the scanner beam spatial area between the irradiation apparatus and an applied layer, wherein - at the end of the coating process for one layer, the coater element is raised from the building plane for return to the coating starting position and is guided above a scanner arrangement of the exposure apparatus back to the coating starting position. - a housing comprising a process chamber, - a building container accommodated therein, - an irradiation apparatus for irradiating layers of the building material at the locations corresponding to the respective cross section of the object, - an application apparatus for applying the layers of the building material to a supporting apparatus in the building container or to a previously formed layer, - a metering device for supplying the building material, wherein the application apparatus comprises a coater element, which distributes the building material supplied by the metering device as a thin layer in an application area along a linear application movement, characterised in that , at the end of a coating process for one layer, upon the return of the coater element to a coating starting position, the coater element executes or can execute an evasion/return movement (A, R, Z), in which the coater element does not cross the scanner beam spatial area between the irradiation apparatus and an applied layer, wherein - at the end of the coating process for one layer, the coater element is raised from the building plane for return to the coating starting position and is guided above a scanner arrangement of the exposure apparatus back to the coating starting position.
Timepiece device comprising a timepiece component (22; 31), a support (21; 36) and at least one flexible guide member extending longitudinally on an axis x and comprising a first and a second rigid part connected by an elastically deformable neck , said first and second rigid parts being suitable to pivot with respect to each other about a virtual axis of rotation perpendicular to the axis x by elastic deformation of said neck , said at least one flexible guide member being suitable to guide the movements of said component (22; 31) with respect to said support (21; 36), said device being characterised in that said neck is defined by a single recess .
An information monitoring method, comprising: allocating , by a network device, a first frequency domain resource to a terminal, wherein the first frequency domain resource is used as a bandwidth part of the terminal, wherein the bandwidth part of the terminal includes at least a terminal-specific search space resource; obtaining , by the network device, a bandwidth capability of the terminal; determining, by the network device based on the bandwidth capability and the first frequency domain resource, a second frequency domain resource allocated to the terminal, wherein the second frequency domain resource is used by the terminal to monitor common information; and sending , by the network device, indication information, wherein the indication information is used to indicate the second frequency domain resource, wherein the determining, by the network device based on the bandwidth capability and the first frequency domain resource, a second frequency domain resource allocated to the terminal comprises: determining, by the network device based on the bandwidth capability and the first frequency domain resource, a first common bandwidth in a plurality of common bandwidths as the second frequency domain resource, wherein a common bandwidth includes at least a common search space resource, and wherein a bandwidth size of the first frequency domain resource and the second frequency domain resource is less than or equal to the bandwidth capability of the terminal. allocating , by a network device, a first frequency domain resource to a terminal, wherein the first frequency domain resource is used as a bandwidth part of the terminal, wherein the bandwidth part of the terminal includes at least a terminal-specific search space resource; obtaining , by the network device, a bandwidth capability of the terminal; determining, by the network device based on the bandwidth capability and the first frequency domain resource, a second frequency domain resource allocated to the terminal, wherein the second frequency domain resource is used by the terminal to monitor common information; and sending , by the network device, indication information, wherein the indication information is used to indicate the second frequency domain resource, wherein the determining, by the network device based on the bandwidth capability and the first frequency domain resource, a second frequency domain resource allocated to the terminal comprises: determining, by the network device based on the bandwidth capability and the first frequency domain resource, a first common bandwidth in a plurality of common bandwidths as the second frequency domain resource, wherein a common bandwidth includes at least a common search space resource, and wherein a bandwidth size of the first frequency domain resource and the second frequency domain resource is less than or equal to the bandwidth capability of the terminal.