mhurhangee/patent-ind-claim-en huggingface dataset:
Vibratory screener , comprising a screen carrier frame having an inner circumference and an outer circumference , a screen for separation of solid particles extending horizontally within the screen carrier frame and being vertically supported by the screen carrier frame , and at least two internal annular disks (14.1, 14.2, 14.3) each having an inner rim (15.1, 15.2, 15.3) and an outer rim (16.1, 16.2, 16.3), wherein each of said at least two internal annular disks (14.1, 14.2, 14.3) is attached to the inner circumference of the screen carrier frame by its outer rim (16.1, 16.2, 16.3), and wherein said at least two internal annular disks (14.1, 14.2, 14.3) are spaced apart from each other in parallel planes, characterized by one or more vibration motors arranged on the outer circumference of the screen carrier frame and configured to generate a component of vibration in a direction (z) perpendicular to the screen , and an inner sleeve arranged within the screen carrier frame and attached to the inner rims (15.2, 15.3) of two (14.2, 14.3) of said at least two internal annular disks, wherein the upper internal annular disk (14.2) of said two internal annular disks and the inner sleeve provide an unbroken surface whereas the lower internal annular disk (14.3) of said two internal annular disks is provided with openings towards the outside environment. a screen carrier frame having an inner circumference and an outer circumference , a screen for separation of solid particles extending horizontally within the screen carrier frame and being vertically supported by the screen carrier frame , and at least two internal annular disks (14.1, 14.2, 14.3) each having an inner rim (15.1, 15.2, 15.3) and an outer rim (16.1, 16.2, 16.3), wherein each of said at least two internal annular disks (14.1, 14.2, 14.3) is attached to the inner circumference of the screen carrier frame by its outer rim (16.1, 16.2, 16.3), and wherein said at least two internal annular disks (14.1, 14.2, 14.3) are spaced apart from each other in parallel planes, characterized by one or more vibration motors arranged on the outer circumference of the screen carrier frame and configured to generate a component of vibration in a direction (z) perpendicular to the screen , and an inner sleeve arranged within the screen carrier frame and attached to the inner rims (15.2, 15.3) of two (14.2, 14.3) of said at least two internal annular disks, wherein the upper internal annular disk (14.2) of said two internal annular disks and the inner sleeve provide an unbroken surface whereas the lower internal annular disk (14.3) of said two internal annular disks is provided with openings towards the outside environment.
An apparatus for video decoding, comprising: means for receiving, in an encoded video bitstream, an offset value for a sample adaptive offset (SAO) filter applied to the reconstructed video data that includes a plurality of color components; means for receiving, in a picture parameter set (PPS) of the encoded video bitstream, a first value indicative of a first scale factor for a first color component of the reconstructed video data and a second value indicative of a second scale factor, the first scale factor being different than the second scale factor for a second color component of the reconstructed video data; means for determining, based at least in part on a bit-depth associated with the first color component, whether to scale the offset value based on a linear function or a non-linear function; means for providing a scaled offset value based on applying the determined one of the linear function and the non-linear function, and the first scale factor, to the offset value; means for generating a scaled color component via adding the scaled offset value to the first color component of the video data; and means for decoding the reconstructed video data according to the scaled color component. means for receiving, in an encoded video bitstream, an offset value for a sample adaptive offset (SAO) filter applied to the reconstructed video data that includes a plurality of color components; means for receiving, in a picture parameter set (PPS) of the encoded video bitstream, a first value indicative of a first scale factor for a first color component of the reconstructed video data and a second value indicative of a second scale factor, the first scale factor being different than the second scale factor for a second color component of the reconstructed video data; means for determining, based at least in part on a bit-depth associated with the first color component, whether to scale the offset value based on a linear function or a non-linear function; means for providing a scaled offset value based on applying the determined one of the linear function and the non-linear function, and the first scale factor, to the offset value; means for generating a scaled color component via adding the scaled offset value to the first color component of the video data; and means for decoding the reconstructed video data according to the scaled color component.
A cable guard comprising: a housing comprising a base having at least two adjoining linear channels the side walls of which extend outwards from the base and along its length, said channels each shaped to receive a length of cable; a cover connected to the housing, the cover allowing access to the housing for placing the one or more length of cable in the housing ; and a locking mechanism which comprises a first locking mechanism which comprises a cover lock which secures the cover to the housing; and characterised by said locking mechanism comprising further a second locking mechanism for securing the length of cable against longitudinal movement in the linear channel inside the housing, wherein, the second locking mechanism is a locking block which in use is fitted snugly around the length of cable within the channel and wherein one or more of the at least one channels comprises a recess into which the locking block is insertable, for securing the length of cable in position within the channel , and wherein said first locking mechanism conceals the position of the recesses and the associated locking block .
A chemically prepared toner composition obtainable by an emulsion aggregation method, the composition comprising: a core having a surface, the core including a first polymer binder having functional groups, a colorant and a release agent; a borax coupling agent located on the surface of the core; and a shell formed around the core and the borax coupling agent, the shell including a second polymer binder having functional groups; wherein the borax coupling agent is located between the core and the shell and bonds the shell to the surface of the core by forming hydrogen bonding between its hydroxyl groups and the functional groups of the first and second polymer binders and collects the components of the toner core to the core before the shell is added thereby reducing the residual fine particles in the toner. a core having a surface, the core including a first polymer binder having functional groups, a colorant and a release agent; a borax coupling agent located on the surface of the core; and a shell formed around the core and the borax coupling agent, the shell including a second polymer binder having functional groups; wherein the borax coupling agent is located between the core and the shell and bonds the shell to the surface of the core by forming hydrogen bonding between its hydroxyl groups and the functional groups of the first and second polymer binders and collects the components of the toner core to the core before the shell is added thereby reducing the residual fine particles in the toner.
An active matrix LED array precursor comprising: a common first semiconducting layer comprising a substantially undoped Group III-nitride; a plurality of transistor-driven LED precursors , each transistor-driven LED precursor comprising: a monolithic light emitting diode (LED) structure comprising a plurality of III-nitride semiconducting layers, each monolithic LED structure formed on a portion of the common semiconducting layer; a barrier semiconducting layer formed on a portion of the common semiconducting layer encircling the LED structure configured to induce a two-dimensional electron channel layer at the interface between the common semiconducting layer and the barrier semiconducting layer; and a gate contact formed over a portion of the two-dimensional electron channel layer , the gate contact encircling the LED structure; and a common source contact configured to form an ohmic contact to each two-dimensional electron channel layer such that a high electron mobility transistor is provided between the common source contact and each monolithic LED structure for driving each LED structure. a common first semiconducting layer comprising a substantially undoped Group III-nitride; a plurality of transistor-driven LED precursors , each transistor-driven LED precursor comprising: a monolithic light emitting diode (LED) structure comprising a plurality of III-nitride semiconducting layers, each monolithic LED structure formed on a portion of the common semiconducting layer; a barrier semiconducting layer formed on a portion of the common semiconducting layer encircling the LED structure configured to induce a two-dimensional electron channel layer at the interface between the common semiconducting layer and the barrier semiconducting layer; and a gate contact formed over a portion of the two-dimensional electron channel layer , the gate contact encircling the LED structure; and a monolithic light emitting diode (LED) structure comprising a plurality of III-nitride semiconducting layers, each monolithic LED structure formed on a portion of the common semiconducting layer; a barrier semiconducting layer formed on a portion of the common semiconducting layer encircling the LED structure configured to induce a two-dimensional electron channel layer at the interface between the common semiconducting layer and the barrier semiconducting layer; and a gate contact formed over a portion of the two-dimensional electron channel layer , the gate contact encircling the LED structure; and a common source contact configured to form an ohmic contact to each two-dimensional electron channel layer such that a high electron mobility transistor is provided between the common source contact and each monolithic LED structure for driving each LED structure.
Optical connection assembly comprising: - a first optical contact comprising at least one body which is designed to envelop at least partly, laterally, a first ferrule having a form which is elongate according to a longitudinal axis Z and accommodated in this at one body and at least a first guide arm extending beyond the front face of the first ferrule, and at least a second guide arm beyond which the body of the ferrule extends; - a second optical contact comprising at least one body which is designed to envelop a second ferrule at least partly, laterally, and accommodated in this at one body , and guide means extending beyond the front face of the second ferrule and designed to cooperate by sliding with the first guide arm and with the at least one second guide arm of the first optical contact in order to carry out respectively a first guiding to alignment along axis Y and in rotation around axis Z and a second guiding to alignment along axis X, then the connection, between the first and second optical contacts, each of the axis X, Y, Z being perpendicular to the two others. - a first optical contact comprising at least one body which is designed to envelop at least partly, laterally, a first ferrule having a form which is elongate according to a longitudinal axis Z and accommodated in this at one body and at least a first guide arm extending beyond the front face of the first ferrule, and at least a second guide arm beyond which the body of the ferrule extends; - a second optical contact comprising at least one body which is designed to envelop a second ferrule at least partly, laterally, and accommodated in this at one body , and guide means extending beyond the front face of the second ferrule and designed to cooperate by sliding with the first guide arm and with the at least one second guide arm of the first optical contact in order to carry out respectively a first guiding to alignment along axis Y and in rotation around axis Z and a second guiding to alignment along axis X, then the connection, between the first and second optical contacts, each of the axis X, Y, Z being perpendicular to the two others.
A projection device comprising: a light source ; an optical scanning unit that includes a base unit , a driver fixed to the base unit , and a reflective unit supported by the driver and that drives the reflective unit to scan light from the light source ; and a scanned unit configured to be scanned with the light from the optical scanning unit so that a projection image is formed on the scanned unit , wherein the projection device further comprises an attachment unit for attaching the projection device to a setting unit of a setting object on which the projection device is set, and characterised in that the attachment unit attaches the projection device to the setting unit such that a lateral direction of the setting object, in which vibration caused by the setting object is equal to or smaller than a predetermined value, and a reflective surface of the reflective unit are approximately perpendicular to each other, wherein the lateral direction of the setting object is parallel to the ground and perpendicular to a direction in which the setting object is configured to travel. a light source ; an optical scanning unit that includes a base unit , a driver fixed to the base unit , and a reflective unit supported by the driver and that drives the reflective unit to scan light from the light source ; and a scanned unit configured to be scanned with the light from the optical scanning unit so that a projection image is formed on the scanned unit , wherein the projection device further comprises an attachment unit for attaching the projection device to a setting unit of a setting object on which the projection device is set, and characterised in that the attachment unit attaches the projection device to the setting unit such that a lateral direction of the setting object, in which vibration caused by the setting object is equal to or smaller than a predetermined value, and a reflective surface of the reflective unit are approximately perpendicular to each other, wherein the lateral direction of the setting object is parallel to the ground and perpendicular to a direction in which the setting object is configured to travel.
A flyback converter for use in a power supply for an electric actuator system, the flyback converter comprising: • a flyback transformer having a primary winding and a secondary winding; • a diode and a buffer capacitor connected in series with said secondary winding to provide an output voltage (V out ) over said buffer capacitor ; • a switching transistor arranged to switch a primary current (I prim ) through said primary winding on and off at a rate and duty cycle determined by a control circuit in dependence of a feedback signal indicative of said output voltage (Vout); and • a snubber circuit arranged in parallel to said primary winding and comprising a snubber diode and a snubber capacitor for accumulating energy stored in a leakage inductance of said flyback transformer when said primary current (I prim ) is switched off, characterized in that the snubber circuit further comprises: • a voltage reference means connected to the primary winding and configured to provide a reference voltage substantially equal to a voltage level reflected from the secondary winding to the primary winding of said flyback transformer when said primary current (I prim ) is switched off; and • a controllable switching element (24; 34) arranged in series with said snubber capacitor and having a control terminal connected to said voltage reference so that the controllable switching element (24; 34) is arranged to be switched on to conduct in parallel to the snubber diode when the voltage over said snubber capacitor exceeds said reference voltage and to continue to be conducting until the voltage over said snubber capacitor will again have reached said reference voltage. • a flyback transformer having a primary winding and a secondary winding; • a diode and a buffer capacitor connected in series with said secondary winding to provide an output voltage (V out ) over said buffer capacitor ; • a switching transistor arranged to switch a primary current (I prim ) through said primary winding on and off at a rate and duty cycle determined by a control circuit in dependence of a feedback signal indicative of said output voltage (Vout); and • a snubber circuit arranged in parallel to said primary winding and comprising a snubber diode and a snubber capacitor for accumulating energy stored in a leakage inductance of said flyback transformer when said primary current (I prim ) is switched off, • a voltage reference means connected to the primary winding and configured to provide a reference voltage substantially equal to a voltage level reflected from the secondary winding to the primary winding of said flyback transformer when said primary current (I prim ) is switched off; and • a controllable switching element (24; 34) arranged in series with said snubber capacitor and having a control terminal connected to said voltage reference so that the controllable switching element (24; 34) is arranged to be switched on to conduct in parallel to the snubber diode when the voltage over said snubber capacitor exceeds said reference voltage and to continue to be conducting until the voltage over said snubber capacitor will again have reached said reference voltage.
A system, comprising: a spinal rod member ; and a pedicle screw , comprising: a pedicle screw head ; a pedicle screw shaft for implanting the pedicle screw in vertebra of a mammalian body; and a pedicle screw aperture , the pedicle screw aperture being configured to receive and retain the spinal rod member relative to the pedicle screw ; and a coupling element attachable to the pedicle screw head , the coupling element being configured to secure the spinal rod member within the pedicle screw aperture ; wherein the spinal rod member comprises: an elongated tubular membrane having a flexible body, the elongated tubular membrane being removable from the spinal rod member ; and a spinal rod body detachable from the elongated tubular membrane and formed of a hardened compound having a liquid, semi-solid, or flexible compound hardened into the flexible body and converted into a solid body through a hardening, wherein the elongated tubular membrane is removable and is configured to be removed from the spinal rod member after the spinal rod body is formed and converted into the solid body. a spinal rod member ; and a pedicle screw , comprising: a pedicle screw head ; a pedicle screw shaft for implanting the pedicle screw in vertebra of a mammalian body; and a pedicle screw aperture , the pedicle screw aperture being configured to receive and retain the spinal rod member relative to the pedicle screw ; and a coupling element attachable to the pedicle screw head , the coupling element being configured to secure the spinal rod member within the pedicle screw aperture ; a pedicle screw head ; a pedicle screw shaft for implanting the pedicle screw in vertebra of a mammalian body; and a pedicle screw aperture , the pedicle screw aperture being configured to receive and retain the spinal rod member relative to the pedicle screw ; and a coupling element attachable to the pedicle screw head , the coupling element being configured to secure the spinal rod member within the pedicle screw aperture ; wherein the spinal rod member comprises: an elongated tubular membrane having a flexible body, the elongated tubular membrane being removable from the spinal rod member ; and a spinal rod body detachable from the elongated tubular membrane and formed of a hardened compound having a liquid, semi-solid, or flexible compound hardened into the flexible body and converted into a solid body through a hardening, wherein the elongated tubular membrane is removable and is configured to be removed from the spinal rod member after the spinal rod body is formed and converted into the solid body. an elongated tubular membrane having a flexible body, the elongated tubular membrane being removable from the spinal rod member ; and a spinal rod body detachable from the elongated tubular membrane and formed of a hardened compound having a liquid, semi-solid, or flexible compound hardened into the flexible body and converted into a solid body through a hardening, wherein the elongated tubular membrane is removable and is configured to be removed from the spinal rod member after the spinal rod body is formed and converted into the solid body.
Device for printing textile surfaces, having - a printing means which can be moved along a longitudinal axis of the device in a longitudinal direction, wherein the printing means has a print head, by means of which at least one textile can be printed with at least one printing ink, - two pallets for accommodating and holding the textile to be printed, - a set-up station which is arranged on a first longitudinal side for supplying the textile and placing it on the pallet , and - movement means , with which the pallets can be moved in a direction transverse to the longitudinal axis between a first lateral set-up position at the set-up station and a printing position at the printing means on a common track , - wherein at least one second set-up station which is arranged on a second longitudinal side lying opposite the first longitudinal side, characterized in that - each pallet can be moved from the printing position to second set-up station linear to the removal of the pallet on the common track and can be taken from the track , and - in that a halting system is provided with which each pallet can be halted reversibly on the track . - a printing means which can be moved along a longitudinal axis of the device in a longitudinal direction, wherein the printing means has a print head, by means of which at least one textile can be printed with at least one printing ink, - two pallets for accommodating and holding the textile to be printed, - a set-up station which is arranged on a first longitudinal side for supplying the textile and placing it on the pallet , and - movement means , with which the pallets can be moved in a direction transverse to the longitudinal axis between a first lateral set-up position at the set-up station and a printing position at the printing means on a common track , - wherein at least one second set-up station which is arranged on a second longitudinal side lying opposite the first longitudinal side, - each pallet can be moved from the printing position to second set-up station linear to the removal of the pallet on the common track and can be taken from the track , and - in that a halting system is provided with which each pallet can be halted reversibly on the track .