mhurhangee/patent-ind-claim-en huggingface dataset:
A tooth for a cutter head, the tooth comprising: - a tooth body portion for connecting to an adapter; and - a pick point portion comprising an end portion with a substantially planar surface, sides extending in an outward direction from the end portion to the tooth body, and a front and back with curvature which expands in thickness from the end portion to the tooth body portion; - wherein the tooth body portion and the pick point portion have a rounded cross-section comprising a central beam with a bottom base extending perpendicular from the beam at a lower end of the beam and a top shoulder on an upper end of the beam. - a tooth body portion for connecting to an adapter; and - a pick point portion comprising an end portion with a substantially planar surface, sides extending in an outward direction from the end portion to the tooth body, and a front and back with curvature which expands in thickness from the end portion to the tooth body portion; - wherein the tooth body portion and the pick point portion have a rounded cross-section comprising a central beam with a bottom base extending perpendicular from the beam at a lower end of the beam and a top shoulder on an upper end of the beam.
An interior trim component configured for use in a vehicle, comprising: a housing formed of a dielectric material; and a plurality of metallic electrical conductors , wherein each electrical conductor of the plurality of metallic electrical conductors is encased within the housing and is surrounded by and in intimate contact with the dielectric material forming the housing , wherein each electrical conductor of the plurality of metallic electrical conductors defines two exposed contact points exposed external to the housing which are curved to provide a spring force for the contact points against mating contact points of mating connectors , and characterized in that the interior trim component is formed by a 3D printing process depositing the dielectric material forming the housing and depositing a conductive material forming the electrical conductor . a housing formed of a dielectric material; and a plurality of metallic electrical conductors , wherein each electrical conductor of the plurality of metallic electrical conductors is encased within the housing and is surrounded by and in intimate contact with the dielectric material forming the housing , wherein each electrical conductor of the plurality of metallic electrical conductors defines two exposed contact points exposed external to the housing which are curved to provide a spring force for the contact points against mating contact points of mating connectors , and characterized in that the interior trim component is formed by a 3D printing process depositing the dielectric material forming the housing and depositing a conductive material forming the electrical conductor .
Vehicle tyre with a decorative lateral wall hatching comprising a multiplicity of linearly running elevations which are formed on hatching areas that form hatching elements , wherein the hatching elements are identical regular or irregular n-sided polygons, where n is from four to six, and directly adjoin one another with common outer element sides , wherein the number of elevations is the same in all of the hatching areas and wherein, at common element sides of hatching elements , the elevations from the corresponding hatching areas directly abut one another, characterized in that the elevations in the hatching areas of a hatching element extend radially from a central region of the hatching element to the element sides .
A method of producing a nonaqueous secondary battery , comprising: preparing an electrode body which includes a positive electrode having a positive electrode active material layer and a negative electrode having a negative electrode active material layer , wherein a surface area of the negative electrode active material layer is larger than a surface area of the positive electrode active material layer and wherein the negative electrode active material layer includes an opposite portion which is opposite to the positive electrode active material layer and a non-opposite portion which is not opposite to the positive electrode active material layer ; constructing a battery assembly with the electrode body and a nonaqueous electrolyte; initially charging the battery assembly; aging the battery assembly at 40°C or higher; adjusting a residual capacity percentage of the battery assembly to 11.5% or more and 14% or less, based on the following equation: Residual capacity percentage % = ∑ charging capacities − ∑ discharging capacities ∑ charging capacities × 100 , where the ∑ charging capacities and the ∑ discharging capacities respectively represent a total sum of charging capacities and a total sum of discharging capacities from the constructing the battery assembly to the adjusting the residual capacity percentage; self-discharging the battery assembly and measuring a voltage drop amount after the adjusting the residual capacity percentage; and determining a quality of the battery assembly based on the voltage drop amount. preparing an electrode body which includes a positive electrode having a positive electrode active material layer and a negative electrode having a negative electrode active material layer , wherein a surface area of the negative electrode active material layer is larger than a surface area of the positive electrode active material layer and wherein the negative electrode active material layer includes an opposite portion which is opposite to the positive electrode active material layer and a non-opposite portion which is not opposite to the positive electrode active material layer ; constructing a battery assembly with the electrode body and a nonaqueous electrolyte; initially charging the battery assembly; aging the battery assembly at 40°C or higher; adjusting a residual capacity percentage of the battery assembly to 11.5% or more and 14% or less, based on the following equation: Residual capacity percentage % = ∑ charging capacities − ∑ discharging capacities ∑ charging capacities × 100 , where the ∑ charging capacities and the ∑ discharging capacities respectively represent a total sum of charging capacities and a total sum of discharging capacities from the constructing the battery assembly to the adjusting the residual capacity percentage; self-discharging the battery assembly and measuring a voltage drop amount after the adjusting the residual capacity percentage; and determining a quality of the battery assembly based on the voltage drop amount.
Girth system , in particular for a saddle or girths for horses, in particular lunging girths or vaulting girths, comprising a plurality of girth straps and a plurality of girth strap suspensions , wherein the girth strap suspensions extend in a V-shaped manner and each have a receptacle for a girth strap which is optionally displaceable on the girth strap suspension , characterized in that the girth strap suspensions extending in a V-shaped manner are arranged in an overlapping manner, so that all ends of the girth strap suspensions are spaced apart from each other.
An apparatus comprising: a first processor core to execute a first instance of an application; a second processor core to execute a second instance of the application concurrent with the first instance of the application; and processing circuitry configured to direct an interrupt to the first processor core based on an indication that an execution state of the first processor core is ahead of an execution state of the second processor core ; wherein the processing circuitry is configured to store an indication of one or more leading processor cores, and to store respective weights for the one or more leading processor cores, the weights defining a relative frequency with which each of the one or more leading processor cores is to receive interrupts redirected from one or more lagging processor cores; wherein the indication that the execution state of the first processor core is ahead of the execution state of the second processor core is based on the second processing core being excluded from the indication of one or more leading processor cores. a first processor core to execute a first instance of an application; a second processor core to execute a second instance of the application concurrent with the first instance of the application; and processing circuitry configured to direct an interrupt to the first processor core based on an indication that an execution state of the first processor core is ahead of an execution state of the second processor core ; wherein the processing circuitry is configured to store an indication of one or more leading processor cores, and to store respective weights for the one or more leading processor cores, the weights defining a relative frequency with which each of the one or more leading processor cores is to receive interrupts redirected from one or more lagging processor cores; wherein the indication that the execution state of the first processor core is ahead of the execution state of the second processor core is based on the second processing core being excluded from the indication of one or more leading processor cores.
Electric fuse , comprising: an electro-pyrotechnic igniter , a disconnection element able to be moved by way of the electro-pyrotechnic igniter , and a current line having a disconnection section , wherein the movable disconnection element is arranged with respect to the electro-pyrotechnic igniter and the disconnection section of the current line such that the movable disconnection element is set in motion after the electro-pyrotechnic igniter has been tripped and thereby severs the current line in the disconnection section , wherein at least one trip means that is designed to provide an ignition current required to trip the electro-pyrotechnic igniter on the basis of a current routed via at least one section of the current line or to temporally change it when the current routed on the at least one section of the current line or its temporal change exceeds a limit value, characterized in that , that at least one trip means comprises an induction loop , wherein the inductance of the induction loop is defined such that the induction loop provides the required ignition current via an inductive coupling to at least one section of the current line , characterized in that the at least one trip means furthermore has an iron core able to move into the induction loop and by way of which it is possible to change the inductance. an electro-pyrotechnic igniter , a disconnection element able to be moved by way of the electro-pyrotechnic igniter , and a current line having a disconnection section , wherein the movable disconnection element is arranged with respect to the electro-pyrotechnic igniter and the disconnection section of the current line such that the movable disconnection element is set in motion after the electro-pyrotechnic igniter has been tripped and thereby severs the current line in the disconnection section , wherein at least one trip means that is designed to provide an ignition current required to trip the electro-pyrotechnic igniter on the basis of a current routed via at least one section of the current line or to temporally change it when the current routed on the at least one section of the current line or its temporal change exceeds a limit value, characterized in that , that at least one trip means comprises an induction loop , wherein the inductance of the induction loop is defined such that the induction loop provides the required ignition current via an inductive coupling to at least one section of the current line , characterized in that the at least one trip means furthermore has an iron core able to move into the induction loop and by way of which it is possible to change the inductance.
A bending system for separating a page from a cover of a value document , wherein the page is connected to a spine of the cover , the spine separating the cover in a first cover portion and a second cover potion , wherein an angle y is formed at the inside of the cover between the first cover portion and the second cover portion , the bending system comprising: a bending unit connected to a motor , wherein the motor is configured to operate the bending unit such that the bending unit bends the value document to a first state where y is larger than 180° and then backwards to a second state where y is at least 180° to separate the page from the cover of the value document ; and wherein the motor is further configured to move the bending unit away from the value document when the value document reaches the second state; and a guidance plate for clamping the cover at least in the second state. a bending unit connected to a motor , wherein the motor is configured to operate the bending unit such that the bending unit bends the value document to a first state where y is larger than 180° and then backwards to a second state where y is at least 180° to separate the page from the cover of the value document ; and wherein the motor is further configured to move the bending unit away from the value document when the value document reaches the second state; and a guidance plate for clamping the cover at least in the second state.
Use of protein hydrolysate derived from a copepod of the genus Calanus, wherein 70 % of the peptides of these hydrolysates are of lower molecular weight than 1000 Da, as a palatability enhancer in a composition for consumption by a cat or dog.
A method for obtaining one or more oral images using an imaging device , comprising: obtaining , using an imager of the imaging device, an oral image ; determining , by a sensor of the imaging device, an orientation of the imaging device ; extracting , by a controller of the imaging device, one or more features from the obtained oral image, wherein the extracted one or more features comprises at least an image quality feature and an object recognition feature; determining , by the controller, whether the one or more extracted features satisfy a predetermined feature threshold; calculating , by the controller if the one or more extracted features does not satisfy the predetermined feature threshold, a physical adjustment of the imaging device required to satisfy the predetermined feature threshold, wherein the calculation of the required physical adjustment is based on the one or more extracted features and the determined orientation of the imaging device; and providing , via a user interface of the imaging device, feedback to a user regarding the obtained oral image if the one or more extracted features does not satisfy the predetermined feature threshold, wherein the feedback comprises instructions to implement the calculated physical adjustment of the imaging device required to satisfy the predetermined feature threshold. obtaining , using an imager of the imaging device, an oral image ; determining , by a sensor of the imaging device, an orientation of the imaging device ; extracting , by a controller of the imaging device, one or more features from the obtained oral image, wherein the extracted one or more features comprises at least an image quality feature and an object recognition feature; determining , by the controller, whether the one or more extracted features satisfy a predetermined feature threshold; calculating , by the controller if the one or more extracted features does not satisfy the predetermined feature threshold, a physical adjustment of the imaging device required to satisfy the predetermined feature threshold, wherein the calculation of the required physical adjustment is based on the one or more extracted features and the determined orientation of the imaging device; and providing , via a user interface of the imaging device, feedback to a user regarding the obtained oral image if the one or more extracted features does not satisfy the predetermined feature threshold, wherein the feedback comprises instructions to implement the calculated physical adjustment of the imaging device required to satisfy the predetermined feature threshold.
A ram air turbine, RAT, assembly , comprising: a turbine having at least one turbine blade that rotates about a turbine driveshaft ; a lower gear box coupled to the driveshaft; a generator/pump housing ; a strut connected between the lower gear box and the generator/pump housing; and a damping element connected to one of the strut and the lower gear box, the damping element including: an actuator including an extendable member ; and a mass element connected to the extendable member and that can be moved by linear extension by a distance (d) of the extendable member from a retracted position to an extended position, wherein the mass element is closer to the actuator when in the retracted position than when in the extended position. a turbine having at least one turbine blade that rotates about a turbine driveshaft ; a lower gear box coupled to the driveshaft; a generator/pump housing ; a strut connected between the lower gear box and the generator/pump housing; and a damping element connected to one of the strut and the lower gear box, the damping element including: an actuator including an extendable member ; and a mass element connected to the extendable member and that can be moved by linear extension by a distance (d) of the extendable member from a retracted position to an extended position, wherein the mass element is closer to the actuator when in the retracted position than when in the extended position. an actuator including an extendable member ; and a mass element connected to the extendable member and that can be moved by linear extension by a distance (d) of the extendable member from a retracted position to an extended position, wherein the mass element is closer to the actuator when in the retracted position than when in the extended position.
An encoding apparatus comprising: one or more processors configured to encode a sequence of Sample Adaptive Offset (SAO) parameters as: a) SAO type, comprising one of a Not Applied, Band Offset (BO) and Edge Offset (EO) as the SAO type; b) in the event SAO processing is applied, absolute values for Band Offset (BO) or Edge Offset (EO); and c) in the event BO is set as the SAO type, offset sign and BO band position; or d) in the event Edge Offset (EO) is set as the SAO type, EO class, in which the EO class represents one of four classes indicating direction; and transmit the sequence of SAO parameters encoded; wherein the one or more processors are configured to binarize the SAO type using truncated unary binarization and encode a first bin of the SAO type using a context mode and a second bin of the SAO type using a by-pass mode; wherein the one or more processors are configured to binarize the EO class using a fixed length code and encode the EO class using a by-pass mode; and wherein the one or more processors are configured to order the encoded parameters as context coded bins grouped before by-pass coded bins. one or more processors configured to encode a sequence of Sample Adaptive Offset (SAO) parameters as: a) SAO type, comprising one of a Not Applied, Band Offset (BO) and Edge Offset (EO) as the SAO type; b) in the event SAO processing is applied, absolute values for Band Offset (BO) or Edge Offset (EO); and c) in the event BO is set as the SAO type, offset sign and BO band position; or d) in the event Edge Offset (EO) is set as the SAO type, EO class, in which the EO class represents one of four classes indicating direction; and a) SAO type, comprising one of a Not Applied, Band Offset (BO) and Edge Offset (EO) as the SAO type; b) in the event SAO processing is applied, absolute values for Band Offset (BO) or Edge Offset (EO); and c) in the event BO is set as the SAO type, offset sign and BO band position; or d) in the event Edge Offset (EO) is set as the SAO type, EO class, in which the EO class represents one of four classes indicating direction; and transmit the sequence of SAO parameters encoded; wherein the one or more processors are configured to binarize the SAO type using truncated unary binarization and encode a first bin of the SAO type using a context mode and a second bin of the SAO type using a by-pass mode; wherein the one or more processors are configured to binarize the EO class using a fixed length code and encode the EO class using a by-pass mode; and wherein the one or more processors are configured to order the encoded parameters as context coded bins grouped before by-pass coded bins.
Separator having a centrifugal drum with a vertical rotational axis, in which a separator disk assembly is arranged, which consists of a plurality of separator disks stacked one above the other and is divided into a lower separator disk assembly section and an upper separator disk assembly section , wherein a. the one lower separator disk assembly section is designed as a separating device for separating an inflowing material to be centrifuged in the centrifugal field into two liquid phases (L1, L2) or as a combined separating and clarifying device for separating an inflowing material to be centrifuged in the centrifugal field into two liquid phases (L1, L2) and for clarifying a solid phase, b. the other upper separator disk assembly section is designed as a clarifying device for clarifying a liquid phase to remove solids (S), characterized in that c. the upper separator disk assembly section , which acts as a clarifying device, is designed so as to be sealed radially inwards. a. the one lower separator disk assembly section is designed as a separating device for separating an inflowing material to be centrifuged in the centrifugal field into two liquid phases (L1, L2) or as a combined separating and clarifying device for separating an inflowing material to be centrifuged in the centrifugal field into two liquid phases (L1, L2) and for clarifying a solid phase, b. the other upper separator disk assembly section is designed as a clarifying device for clarifying a liquid phase to remove solids (S), characterized in that c. the upper separator disk assembly section , which acts as a clarifying device, is designed so as to be sealed radially inwards.
A method performed by a wireless transmit/receive unit, WTRU, (102a-d) configured to perform device-to-device, D2D, discovery, the method comprising: sending, to a network, a discovery request to start a discovery process used to perform radio frequency, RF, proximity detection for a service, wherein the discovery request includes a discovery identity, wherein the discovery identity includes a dedicated part having an application identification and a common part having a public land mobile network, PLMN, identity, and wherein the discovery identity is associated, at the WTRU, with a time of expiration and the discovery identity is valid until the time of expiration; and monitoring a channel for a discovery response associated with the discovery request. sending, to a network, a discovery request to start a discovery process used to perform radio frequency, RF, proximity detection for a service, wherein the discovery request includes a discovery identity, wherein the discovery identity includes a dedicated part having an application identification and a common part having a public land mobile network, PLMN, identity, and wherein the discovery identity is associated, at the WTRU, with a time of expiration and the discovery identity is valid until the time of expiration; and monitoring a channel for a discovery response associated with the discovery request.