mhurhangee/patent-ind-claim-en huggingface dataset:
A validator device including a plurality of readers for reading a corresponding plurality of media types presented by a user, comprising: a housing containing the plurality of readers including a contactless reader and a barcode reader wherein the readers are spaced at different locations within the housing and disposed therein to read media types presented to the validator device at a single target area of the validator device; wherein the contactless reader is disposed at a housing location wherein a beam from the barcode reader is focused on a contactless target of the contactless reader ; wherein the housing is configured to direct a user to present a media type to be read at the single target area; and characterized in that the single target area comprises a surface area of the housing immediately adjacent the contactless reader, said surface area being opposed to a source point of the beam from the barcode reader such that said plurality of media types may be read at the single target area. a housing containing the plurality of readers including a contactless reader and a barcode reader wherein the readers are spaced at different locations within the housing and disposed therein to read media types presented to the validator device at a single target area of the validator device; wherein the contactless reader is disposed at a housing location wherein a beam from the barcode reader is focused on a contactless target of the contactless reader ; wherein the housing is configured to direct a user to present a media type to be read at the single target area; and characterized in that the single target area comprises a surface area of the housing immediately adjacent the contactless reader, said surface area being opposed to a source point of the beam from the barcode reader such that said plurality of media types may be read at the single target area.
A system for a wheeled, pedal driven, electrically assisted vehicle comprising a handle and a control system, wherein the handle comprises: - an elongate body having a first end , a second end and an outer surface ; - a receiving hollow provided within said elongate body for receiving a portion of a handle bar of the vehicle , such that the elongate body may surround said portion of the handle bar , and said outer surface envelopes said portion of the handle bar ; - a display provided at the outer surface at said first end of the elongate body at a first position; and and wherein the display and one or more input devices in said handle is electronically connected to the control system, the control system being configured for controlling an electric motor of the vehicle , charactered in that said one or more input devices are provided at the outer surface at a second position at an opposite side of said elongate body relative to the first position. wherein the handle comprises: - an elongate body having a first end , a second end and an outer surface ; - a receiving hollow provided within said elongate body for receiving a portion of a handle bar of the vehicle , such that the elongate body may surround said portion of the handle bar , and said outer surface envelopes said portion of the handle bar ; - a display provided at the outer surface at said first end of the elongate body at a first position; and and - an elongate body having a first end , a second end and an outer surface ; - a receiving hollow provided within said elongate body for receiving a portion of a handle bar of the vehicle , such that the elongate body may surround said portion of the handle bar , and said outer surface envelopes said portion of the handle bar ; - a display provided at the outer surface at said first end of the elongate body at a first position; and wherein the display and one or more input devices in said handle is electronically connected to the control system, the control system being configured for controlling an electric motor of the vehicle , charactered in that said one or more input devices are provided at the outer surface at a second position at an opposite side of said elongate body relative to the first position.
Chassis of a motor vehicle , comprising a base frame covered by a floor fixed to the frame, the frame comprising lateral side members , at least one longitudinal tunnel placed at a transverse distance from said side member to which the tunnel is connected via a cross member fixed at one of its ends to the tunnel and at the other of its ends to the side member , the cross member forming a first member for transmitting to the tunnel a first thrust force (EP1) generated by an impact (C1) applied laterally against the chassis , at least one strut being jointly fixed at its respective ends to the cross-member and to the tunnel , being inclined with respect to their main direction of extension in a plane parallel to the floor , said strut forming a second member for transmitting to the tunnel a second thrust force (EP2) generated by said impact (C1) and transmitted to the strut by the cross-member , characterized in that said strut comprises a return member from the second thrust force (EP 2) from a first direction (D 1) of transmission of the second thrust force (EP 2) by the crosspiece to the strut which is oriented according to the main extension of the strut between its ends (8 a, 8 b), to a second direction (D 2) of transmission of the second thrust force (EP 2) by the strut to the tunnel which is oriented perpendicularly to the tunnel .
Floor panel for forming a floor covering, wherein this floor panel substantially is realized on the basis of synthetic thermoplastic material and preferably as a layer-shaped, either single-layer or multi-layer, substrate; wherein this floor panel is rectangular, either oblong or square, and thus comprises a first pair of opposite edges (P1, 4-5) and a second pair of opposite edges (P2, 6-7); wherein the first pair of opposite edges comprises coupling parts (8-9), which allow that a plurality of such floor panels mutually can be coupled to each other; wherein these coupling parts (8-9) form a first mechanical locking system, which, in a coupled condition of two of such floor panels, effects a locking in the plane of the floor panels and perpendicular to the respective edges, as well as form a second mechanical locking system, which, in a coupled condition of two of such floor panels, effects a locking transverse to the plane of the panels; wherein these coupling parts, on the first pair of opposite edges (P1, 4-5), preferably are realized substantially in the material of the floor panel itself, and more particularly in said substrate ; wherein the floor panel, on the second pair of edges (P2, 6-7), is provided with an edge configuration which allows that two of such floor panels can be positioned with their respective edges alongside each other, wherein the configuration of the edges (6-7) is free from mechanical horizontally active locking systems; wherein the second pair of edges (P2, 6-7) is also free from mechanical vertically active locking systems; characterized in that the floor panel, on the second pair of edges (P2, 6-7), has an edge configuration which provides for that the actual panels extend along these edges alongside each other in an overlapping manner.
An saRNA, wherein the saRNA consists of GACCAGUGACAAUGACCGCUU as an antisense sequence and GCGGUCAUUGUCACUGGUCUU as a sense sequence.
A vacuum pump for mounting to a semiconductor processing chamber to evacuate said chamber to pressures between 1 mbar and 5 X10 -2 mbar, said vacuum pump comprising: a rotor rotatably mounted within a stator; said rotor comprising a plurality of angled blades arranged along a helical path from an inlet to an outlet ; said stator comprising a plurality of perforated elements arranged to intersect said helical path, said perforations allowing gas molecules travelling along said helical path to pass through said perforated elements; said rotor being mounted on a magnetically levitated bearing ; characterised in that said perforated elements located towards the inlet of said vacuum pump comprise a transparency of more than 40% and said perforated elements located towards the outlet of said vacuum pump comprise a transparency of more than 30%, and in that the transparency of said plurality of perforated elements reduces towards said outlet. a rotor rotatably mounted within a stator; said rotor comprising a plurality of angled blades arranged along a helical path from an inlet to an outlet ; said stator comprising a plurality of perforated elements arranged to intersect said helical path, said perforations allowing gas molecules travelling along said helical path to pass through said perforated elements; said rotor being mounted on a magnetically levitated bearing ; characterised in that said perforated elements located towards the inlet of said vacuum pump comprise a transparency of more than 40% and said perforated elements located towards the outlet of said vacuum pump comprise a transparency of more than 30%, and in that the transparency of said plurality of perforated elements reduces towards said outlet.
A method of performing dynamic power optimization in a fiber-optic communication system in response to poor connection or bad communication quality associated with an event on a link of the fiber-optic communication system after linking up of a communication channel, comprising: a first optical transceiver in the fiber-optic communication system transmitting a power correction request packet to a second optical transceiver in the fiber-optic communication system using an optical transmitting power having an initial value; characterized by comprising: acquiring a power compensation value which is associated with a difference between an optical receiving power actually inputted into the second optical transceiver and an expected input power of the second optical transceiver ; adjusting the optical transmitting power according to the power compensation value when a value of the optical receiving power is larger than a value of the expected input power; and the first optical transceiver transmitting signals to the second optical transceiver using the adjusted optical transmitting power. a first optical transceiver in the fiber-optic communication system transmitting a power correction request packet to a second optical transceiver in the fiber-optic communication system using an optical transmitting power having an initial value; characterized by comprising: acquiring a power compensation value which is associated with a difference between an optical receiving power actually inputted into the second optical transceiver and an expected input power of the second optical transceiver ; adjusting the optical transmitting power according to the power compensation value when a value of the optical receiving power is larger than a value of the expected input power; and the first optical transceiver transmitting signals to the second optical transceiver using the adjusted optical transmitting power. acquiring a power compensation value which is associated with a difference between an optical receiving power actually inputted into the second optical transceiver and an expected input power of the second optical transceiver ; adjusting the optical transmitting power according to the power compensation value when a value of the optical receiving power is larger than a value of the expected input power; and the first optical transceiver transmitting signals to the second optical transceiver using the adjusted optical transmitting power.
Road surface comprising one or more porous strips comprising: - a porous upper layer consisting of a porous asphalt concrete layer comprising: - a mixture of bitumen and aggregate, the aggregate comprising a fraction of 65% or more that cannot pass through a 14mm-sieve and a fraction of 90% or more that can indeed pass through a 32mm-sieve; - a porosity in the range of 27% up to and including 35%; and - a thickness in the range of 18cm up to and including 25cm; and - a water-permeable, non-bonded foundation positioned between the porous upper layer and the ground , in order for water to seep into the ground , the foundation comprising a thickness in the range of 12cm or larger. - a porous upper layer consisting of a porous asphalt concrete layer comprising: - a mixture of bitumen and aggregate, the aggregate comprising a fraction of 65% or more that cannot pass through a 14mm-sieve and a fraction of 90% or more that can indeed pass through a 32mm-sieve; - a porosity in the range of 27% up to and including 35%; and - a thickness in the range of 18cm up to and including 25cm; and - a water-permeable, non-bonded foundation positioned between the porous upper layer and the ground , in order for water to seep into the ground , the foundation comprising a thickness in the range of 12cm or larger.
Color-changing composition, that is a composition which changes color upon application, for caring for and/or making up keratin materials comprising, in a physiologically acceptable medium: a) at least 60 % by weight of an aqueous phase relative to the weight of the composition, b) microcapsules containing releasable colorant(s), c) at least one pigment chosen from organic pigments and non-lamellar mineral pigments, said pigment being not encapsulated in the microcapsules, said pigment and microcapsules being present in the composition in a weight ratio of pigments / microcapsules > 1.5, wherein the microcapsules comprise - a core comprising one organic material, said core comprising at least one monosaccharide or monosaccharide-polyol advantageously selected from mannitol, erythritol, xylitol, sorbitol and mixtures thereof, preferably mannitol, as said organic material, - at least one layered coating surrounding said core, the layered coating comprising at least one polymer, at least one colorant, and advantageously at least one lipid-based material, wherein said composition comprises - a gelifying agent chosen from polymers comprising 2-acrylamido-2-methylpropanesulphonic acid units. a) at least 60 % by weight of an aqueous phase relative to the weight of the composition, b) microcapsules containing releasable colorant(s), c) at least one pigment chosen from organic pigments and non-lamellar mineral pigments, said pigment being not encapsulated in the microcapsules, said pigment and microcapsules being present in the composition in a weight ratio of pigments / microcapsules > 1.5, - a core comprising one organic material, said core comprising at least one monosaccharide or monosaccharide-polyol advantageously selected from mannitol, erythritol, xylitol, sorbitol and mixtures thereof, preferably mannitol, as said organic material, - at least one layered coating surrounding said core, the layered coating comprising at least one polymer, at least one colorant, and advantageously at least one lipid-based material, - a gelifying agent chosen from polymers comprising 2-acrylamido-2-methylpropanesulphonic acid units.
A polymorphic form of the citrate salt of -14-methyl-20-oxa-5,7,14,26-tetraazatetracyclo[19.3.1.1 .1 ]heptacosa-1 ,2 ,3,5,8 ,9,11,16,21,23-decaene (TG02 Form X (citrate)) characterized as having a powder x-ray diffraction pattern with peaks at 15.2 ± 0.2 degrees 2Θ, 15.5 ± 0.2 degrees 2Θ, 21.7 ± 0.2 degrees 2Θ, 22.1 ± 0.2 degrees 2Θ, 23.0 ± 0.2 degrees 2Θ, 26.2 ± 0.2 degrees 2Θ, and 29.9 ± 0.2 degrees 2Θ, wherein the powder x-ray diffraction pattern is collected using Cu Kα radiation.
A boost converter control system, comprising: a phase compensator to receive a cycle signal from a first converter of an interleaved boost converter, the cycle signal having a power phase during which power is drawn from an input of the first converter, the power phase having a primary stroke during which a first gate of the first converter is enabled and a secondary stroke during which the first gate is disabled; a phase adjustment module to receive a first phase feedback signal of the first converter and a second phase feedback signal of a second converter of the interleaved boost converter, to measure the phase difference and to generate a phase control output; a cycle controller to receive the phase control output and to generate a first drive signal to control switching of a first gate of the first converter and a second drive signal to control switching of a second gate of the second converter, wherein times of the first and second drive signals are adjusted using the phase control output; characterized in that the phase compensator is configured to compare a duration of the power phase to a cycle duration from the start of the primary stroke to a start of a next primary stroke and to generate a phase compensation in response thereto, and in that the phase adjustment module is configured to receive the phase compensation and to generate the phase control output in response to the phase difference and the phase compensation. a phase compensator to receive a cycle signal from a first converter of an interleaved boost converter, the cycle signal having a power phase during which power is drawn from an input of the first converter, the power phase having a primary stroke during which a first gate of the first converter is enabled and a secondary stroke during which the first gate is disabled; a phase adjustment module to receive a first phase feedback signal of the first converter and a second phase feedback signal of a second converter of the interleaved boost converter, to measure the phase difference and to generate a phase control output; a cycle controller to receive the phase control output and to generate a first drive signal to control switching of a first gate of the first converter and a second drive signal to control switching of a second gate of the second converter, wherein times of the first and second drive signals are adjusted using the phase control output; characterized in that the phase compensator is configured to compare a duration of the power phase to a cycle duration from the start of the primary stroke to a start of a next primary stroke and to generate a phase compensation in response thereto, and in that the phase adjustment module is configured to receive the phase compensation and to generate the phase control output in response to the phase difference and the phase compensation.
A terminal communication method, comprising: obtaining, by a communications device, start information and subframe gap information, wherein the start information is used to indicate a start location of a first time resource, and the subframe gap information is used to indicate a gap between two adjacent subframes in the first time resource; and determining, by the communications device, the first time resource based on the start information and the subframe gap information, wherein the first time resource is used to indicate a transmit time resource of a sidelink signal, wherein the method further comprises: obtaining, by the communications device, a relative offset value of the first time resource and a second time resource, wherein the communications device receives the sidelink signal based on the second time resource; and the determining, by the communications device, the first time resource based on the start information and the subframe gap information comprises: determining, by the communications device, the first time resource based on the start information, the subframe gap information, and the relative offset value of the first time resource and the second time resource. obtaining, by a communications device, start information and subframe gap information, wherein the start information is used to indicate a start location of a first time resource, and the subframe gap information is used to indicate a gap between two adjacent subframes in the first time resource; and determining, by the communications device, the first time resource based on the start information and the subframe gap information, wherein the first time resource is used to indicate a transmit time resource of a sidelink signal, wherein the method further comprises: obtaining, by the communications device, a relative offset value of the first time resource and a second time resource, wherein the communications device receives the sidelink signal based on the second time resource; and the determining, by the communications device, the first time resource based on the start information and the subframe gap information comprises: determining, by the communications device, the first time resource based on the start information, the subframe gap information, and the relative offset value of the first time resource and the second time resource. obtaining, by the communications device, a relative offset value of the first time resource and a second time resource, wherein the communications device receives the sidelink signal based on the second time resource; and the determining, by the communications device, the first time resource based on the start information and the subframe gap information comprises: determining, by the communications device, the first time resource based on the start information, the subframe gap information, and the relative offset value of the first time resource and the second time resource.
A mechanical driver comprising: a piston , a wedge shaped member operatively coupled and in constant contact with the piston and moveable relative to the piston , and a shape memory alloy operatively coupled to the wedge shaped member , to move the wedge shaped member relative to the piston such that the wedge shaped member deflects the piston , wherein the shape memory alloy is held at a predetermined tension in a start position, and characterised in that the wedge shaped member is arranged so that it moves relative to the piston whilst the wedge shaped member is operatively coupled and in constant contact with the piston . a piston , a wedge shaped member operatively coupled and in constant contact with the piston and moveable relative to the piston , and a shape memory alloy operatively coupled to the wedge shaped member , to move the wedge shaped member relative to the piston such that the wedge shaped member deflects the piston , wherein the shape memory alloy is held at a predetermined tension in a start position, and characterised in that the wedge shaped member is arranged so that it moves relative to the piston whilst the wedge shaped member is operatively coupled and in constant contact with the piston .
A tiled display comprising discrete luminous sources distributed over at least two adjacent flexible display tiles , each of said flexible display tiles being configured to drive the discrete luminous sources on it when connected to a power supply and when receiving data and control signals, said data signals comprising a video signal; wherein the power, data and control signals are provided to the tiles through conducting tracks formed on a carrier substrate underlying said at least two display tiles, wherein an electrical connection between a first conductor on the carrier substrate and a second conductor on a tile is established by means of a connecting element comprising a resilient means keeping it pressed and in contact with a surface of the first conductor or second conductor .