mhurhangee/patent-ind-claim-en huggingface dataset:
A system for projecting light, the system comprising: a light generator that generates image light that corresponds to a series of images; a display device that receives the image light generated by the light generator ; and an acousto-optical scanner , wherein the display device deflects the image light onto the acousto-optical scanner and the acousto-optical scanner deflects portions of the image light onto a plurality of diffractive optical elements , wherein each of the plurality of diffractive optical elements is configured to display portions of the image light at a depth plane, wherein the plurality of diffractive optical elements is stacked, and wherein each of the plurality of diffractive optical elements includes an in-coupling grating offset from respective in-coupling gratings of the other diffractive optical elements of the plurality such that each of the plurality of diffractive optical elements corresponds to a different depth plane of the series of images. a light generator that generates image light that corresponds to a series of images; a display device that receives the image light generated by the light generator ; and an acousto-optical scanner , wherein the display device deflects the image light onto the acousto-optical scanner and the acousto-optical scanner deflects portions of the image light onto a plurality of diffractive optical elements , wherein each of the plurality of diffractive optical elements is configured to display portions of the image light at a depth plane, wherein the plurality of diffractive optical elements is stacked, and wherein each of the plurality of diffractive optical elements includes an in-coupling grating offset from respective in-coupling gratings of the other diffractive optical elements of the plurality such that each of the plurality of diffractive optical elements corresponds to a different depth plane of the series of images.
A semiconductor relay comprising: at least one semiconductor switching element that is configured to be disposed on a first electric path between a high-voltage power source and a high-voltage load configured to receive electrical power supply from the high-voltage power source , and is configured to open and close the first electric path ; at least two detection sections configured to detect a physical quantity related to current flowing through the first electric path ; and a conductive member serving as part of the first electric path and having a resistance value that changes in accordance with temperature change; wherein each of the detection sections includes: a temperature detection section configured to detect temperature of the conductive member , and a voltage detection section configured to detect potential difference between two points on the conductive member , and the two detection sections are disposed on the first electric path with the semiconductor switching element interposed between the two detection sections . at least one semiconductor switching element that is configured to be disposed on a first electric path between a high-voltage power source and a high-voltage load configured to receive electrical power supply from the high-voltage power source , and is configured to open and close the first electric path ; at least two detection sections configured to detect a physical quantity related to current flowing through the first electric path ; and a conductive member serving as part of the first electric path and having a resistance value that changes in accordance with temperature change; wherein each of the detection sections includes: a temperature detection section configured to detect temperature of the conductive member , and a voltage detection section configured to detect potential difference between two points on the conductive member , and a temperature detection section configured to detect temperature of the conductive member , and a voltage detection section configured to detect potential difference between two points on the conductive member , and the two detection sections are disposed on the first electric path with the semiconductor switching element interposed between the two detection sections .
An apparatus for roasting coffee beans comprising : - a vessel to contain coffee beans, - a heating device to heat coffee beans contained in the vessel, - a control system operable to control the heating device and configured to apply a roasting recipe (R) providing the temperature T @t1 , T @t2 , ... to be applied at discrete successive times t 1 , t 2 , ..., respectively, wherein, for any customised quantity m of coffee beans introduced inside the vessel, - the control system is configured to obtain at least the customised quantity m of coffee beans introduced inside the vessel, and - the control system is configured to get access to at least one series of roasting recipes (R i , R i+1 , ...) adapted to the roasting of different successive pre-determined quantities (M i , M i+1 , ...) of beans of same type and to said pre-determined quantities Mi, Mi+1, ..., and - based on said accessible series of roasting recipes (R i , R i+1 , ...) adapted to the roasting of different successive pre-determined quantities (M i , M i+1 , ...) of beans of same type and based on said obtained customised quantity m of coffee beans introduced inside the vessel, the control system is configured to determine the roasting recipe (R) to be applied on said obtained customised quantity m of coffee beans introduced inside the vessel. - a vessel to contain coffee beans, - a heating device to heat coffee beans contained in the vessel, - a control system operable to control the heating device and configured to apply a roasting recipe (R) providing the temperature T @t1 , T @t2 , ... to be applied at discrete successive times t 1 , t 2 , ..., respectively, wherein, for any customised quantity m of coffee beans introduced inside the vessel, - the control system is configured to obtain at least the customised quantity m of coffee beans introduced inside the vessel, and - the control system is configured to get access to at least one series of roasting recipes (R i , R i+1 , ...) adapted to the roasting of different successive pre-determined quantities (M i , M i+1 , ...) of beans of same type and to said pre-determined quantities Mi, Mi+1, ..., and - based on said accessible series of roasting recipes (R i , R i+1 , ...) adapted to the roasting of different successive pre-determined quantities (M i , M i+1 , ...) of beans of same type and based on said obtained customised quantity m of coffee beans introduced inside the vessel, the control system is configured to determine the roasting recipe (R) to be applied on said obtained customised quantity m of coffee beans introduced inside the vessel.
A tire comprising: a bead core ; a bead filler which extends to an outer side in a tire-radial of the bead core ; a carcass ply which extends from the bead core to another bead core , and is folded back around the bead core ; and a rubber sheet which from the inner side in the tire-width direction covers a folding end of the carcass ply which has been folded back, wherein an electronic component is provided between the bead filler and the rubber sheet . a rubber sheet which from the inner side in the tire-width direction covers a folding end of the carcass ply which has been folded back, wherein an electronic component is provided between the bead filler and the rubber sheet .
Control device for controlling at least one transistor, referred to as the controlled transistor , comprising: - said controlled transistor , this comprising a control electrode (E c ) and two other electrodes (E 1 and E 2 ), - a main control circuit connected to the control electrode (E c ) of the controlled transistor and configured to control, according to a main operating mode, the state of the controlled transistor , and - an auxiliary control circuit configured to inject, according to an auxiliary operating mode, an auxiliary current opposite to the current flowing between the main control circuit and the control electrode (E c ) of the controlled transistor , the control device further comprising a control circuit for controlling the auxiliary control circuit , said control circuit comprising a first switching element configured to place the auxiliary control circuit and the control electrode (E c ) of the controlled transistor in electrical conduction so as to allow the auxiliary operating mode or to interrupt said electrical conduction and block the auxiliary operating mode according to commands from the main control circuit , characterized in that the control circuit comprises a second switching element corresponding to an N-channel MOSFET transistor of which: - the gate is connected to the main control circuit , - the drain is connected both to a first voltage source (V c ) and to a control electrode for the first switching element , and - the source is connected to a second voltage source (V cc ), the voltage of which is lower than the voltage of the first voltage source (V c ). - said controlled transistor , this comprising a control electrode (E c ) and two other electrodes (E 1 and E 2 ), - a main control circuit connected to the control electrode (E c ) of the controlled transistor and configured to control, according to a main operating mode, the state of the controlled transistor , and - an auxiliary control circuit configured to inject, according to an auxiliary operating mode, an auxiliary current opposite to the current flowing between the main control circuit and the control electrode (E c ) of the controlled transistor , the control device further comprising a control circuit for controlling the auxiliary control circuit , said control circuit comprising a first switching element configured to place the auxiliary control circuit and the control electrode (E c ) of the controlled transistor in electrical conduction so as to allow the auxiliary operating mode or to interrupt said electrical conduction and block the auxiliary operating mode according to commands from the main control circuit , - the gate is connected to the main control circuit , - the drain is connected both to a first voltage source (V c ) and to a control electrode for the first switching element , and - the source is connected to a second voltage source (V cc ), the voltage of which is lower than the voltage of the first voltage source (V c ).
A scheduling method of a communication system, comprising the steps of: determining a Coordinated Multi-point Transmission/Reception, CoMP, set of cells for a terminal that supports a CoMP function ; transmitting, to the terminal, an indicator for use in scheduling one or more cells in the CoMP set and cell information corresponding to the indicator, wherein the indicator indicates a combination of information on a Common Reference Signal, CRS, transmission resource for use in the CoMP set, scrambling information, and control region size information ; and transmitting, to the terminal, scheduling information with the indicator . determining a Coordinated Multi-point Transmission/Reception, CoMP, set of cells for a terminal that supports a CoMP function ; transmitting, to the terminal, an indicator for use in scheduling one or more cells in the CoMP set and cell information corresponding to the indicator, wherein the indicator indicates a combination of information on a Common Reference Signal, CRS, transmission resource for use in the CoMP set, scrambling information, and control region size information ; and transmitting, to the terminal, scheduling information with the indicator .
An optical planetarium , comprising: a projector configured to project images of stars; a diumal-axis support mechanism configured to allow the projector to rotate about a diumal axis ; a latitude-axis support mechanism configured to allow the projector to rotate about a latitude axis that is orthogonal to the diumal axis ; an azimuth-axis support mechanism configured to allow the projector to rotate about an azimuth axis that is set vertically; characterized in that the optical planetarium further comprises: a latitude-axis inclination angle changing mechanism configured to allow an angle between the latitude axis and a horizontal plane to be changed within a predetermined range. a projector configured to project images of stars; a diumal-axis support mechanism configured to allow the projector to rotate about a diumal axis ; a latitude-axis support mechanism configured to allow the projector to rotate about a latitude axis that is orthogonal to the diumal axis ; an azimuth-axis support mechanism configured to allow the projector to rotate about an azimuth axis that is set vertically; characterized in that the optical planetarium further comprises: a latitude-axis inclination angle changing mechanism configured to allow an angle between the latitude axis and a horizontal plane to be changed within a predetermined range.
A chimeric protein comprising: (a) a modified human IFN-γ, said modified human IFN-γ having one or more mutations as compared to a wild type IFN-γ, the mutations being selected from a truncation at the C-terminus of 14, 15, or 16 amino acid residues or an A23G and D24G double substitution; (b) one or more targeting moieties, said targeting moieties comprising recognition domains which specifically bind to antigens or receptors of interest; and wherein the modified human IFN-γ and the one or more targeting moieties are optionally connected with one or more linkers. (a) a modified human IFN-γ, said modified human IFN-γ having one or more mutations as compared to a wild type IFN-γ, the mutations being selected from a truncation at the C-terminus of 14, 15, or 16 amino acid residues or an A23G and D24G double substitution; (b) one or more targeting moieties, said targeting moieties comprising recognition domains which specifically bind to antigens or receptors of interest; and wherein the modified human IFN-γ and the one or more targeting moieties are optionally connected with one or more linkers.
Electromagnetic adjustment apparatus, in particular for camshaft adjustment , having a plug housing made of isolating casting material and in which a stationary coil unit and a sensor unit are disposed, entirely encapsulated, each of which comprising respective connections (24, 25, 26, 27; 31, 32, 33) which are electrically connected via electrical conductors (41-46) to contact pins (61-66) protruding from the plug housing , having as well an operating unit in which at least one axially moveable anchor is disposed which can be axially moved when current is supplied to the coil unit , wherein the connections (24, 25, 26, 27; 31, 32, 33) and the electrical conductors (41-46) of the coil unit and the sensor unit to the contact pins (61-66) are entirely encapsulated in the casting material of the plug housing .
A compound of formula (I): or a pharmaceutically acceptable salt thereof, wherein: n is 1 or 2; n' is 0 or 1; R 1 is selected from hydrogen and benzyl; and R 2 is n is 1 or 2; n' is 0 or 1; R 1 is selected from hydrogen and benzyl; and R 2 is
A method of operating an actuator device comprising: - an electrode arrangement comprising a first electrode and a second electrode , the electrode arrangement being for receiving an electrical drive signal to therewith cause a voltage difference between the first electrode and the second electrode; - an electroactive polymer structure for providing an actuation in response to the voltage difference which actuation has a direction of actuation that is independent of a polarity of the voltage difference; the method being characterised by comprising: - applying the electrical drive signal to the electrode arrangement, wherein the electrical drive signal comprises: - a first electrical drive signal during a first period for causing the voltage difference to have a first polarity in the first period; and - a second electrical drive signal in a second period , different from the first period, for causing the voltage difference to have a second polarity, different from the first polarity, in the second period. - an electrode arrangement comprising a first electrode and a second electrode , the electrode arrangement being for receiving an electrical drive signal to therewith cause a voltage difference between the first electrode and the second electrode; - an electroactive polymer structure for providing an actuation in response to the voltage difference which actuation has a direction of actuation that is independent of a polarity of the voltage difference; - applying the electrical drive signal to the electrode arrangement, - a first electrical drive signal during a first period for causing the voltage difference to have a first polarity in the first period; and - a second electrical drive signal in a second period , different from the first period, for causing the voltage difference to have a second polarity, different from the first polarity, in the second period.
Fin stabilizer for roll stabilization of a vessel during travel, at anchor or at a speed of zero with a fin-carrying shaft which also forms a fin stem with a drive device for rotating a fin about a fin stem axis so as to change an angle of incidence (δ) of the fin in the water and with a pivoting device with a pivoting column for an angular movement of the fin and the fin stem about a pivot axis , which extends substantially vertically and at right angles with respect to a vessel longitudinal axis , for pivoting the fin outwards into an operating position outside an assigned fin box within the vessel and inwards into a rest position inside said fin box, wherein the fin has the shape of an elongate polygon and has a sweep (γ) in the direction of travel (F), wherein the sweep (γ) of the fin in the direction of travel (F) is up to 30°, characterized in that the fin stem axis is positioned in a direction of travel (F) of the vessel in a first operating position, wherein an inner edge of the fin has at least one bending portion which divides the inner edge into a first portion facing the bow in the first operating position and a second portion pointing in the direction of a stern of the vessel in the first operating position, wherein the first portion is arranged outside the fin box in the first operating position.
A combination of an interface element for dental prostheses , a screw with a head, and a screwdriver , wherein said interface element is of the type configured from a hollow cylindrical body comprising two differentiated sections, one lower section (a) of greater outer diameter and an upper section (b) of smaller outer diameter, both externally comprising circular retention grooves for fixing thereof to the structure of a prosthesis ; an internal seat for the screw head which is inserted inside thereof to fix the interface element to an implant by screwing, and; a lower base that determines a perimeter wing the geometry of which on the lower side of the interface element varies depending on the type of connection the implant has, wherein the interface element comprises a side mortise on the upper section (b) that determines a side opening at the end of the cylindrical body suitable for the inclined entrance of the screw and of the screwdriver for screwing said screw , wherein the height of the opening allows freedom of movement of the screwdriver so that its inclination for fixing the screw to the implant can be varied from 0° to 30° with respect to the axial axis of the cylindrical body, both the screw and the screwdriver having the appropriate design to be able to act in angulation.
A check valve, comprising: an upper housing defining an inlet of the check valve; a lower housing axially coupled to the upper housing and comprising an outlet of the check valve and a support portion ; a cavity interposed between and defined by the upper and lower housings for fluidly connecting the inlet and the outlet; and a flexible valve member having a mounting position on the support portion in the cavity and having an open state to selectively permit a fluid flow from the inlet and into the cavity to enter the outlet , and a closed state to prevent the fluid flow from the outlet to the inlet , the flexible valve member comprising a body having an outer circumferential perimeter and a plurality of longitudinally extending feet disposed about the outer circumferential perimeter of the body, wherein, a downstream pressure by the fluid flowing from the outlet to the inlet which places check valve in the closed state can displace the flexible valve member from its mounting position on the support portion such that, in the open state and in the closed state, a central axis (X4) of the flexible valve member is misaligned with a central longitudinal axis (X1) of the check valve. an upper housing defining an inlet of the check valve; a lower housing axially coupled to the upper housing and comprising an outlet of the check valve and a support portion ; a cavity interposed between and defined by the upper and lower housings for fluidly connecting the inlet and the outlet; and a flexible valve member having a mounting position on the support portion in the cavity and having an open state to selectively permit a fluid flow from the inlet and into the cavity to enter the outlet , and a closed state to prevent the fluid flow from the outlet to the inlet , the flexible valve member comprising a body having an outer circumferential perimeter and a plurality of longitudinally extending feet disposed about the outer circumferential perimeter of the body, wherein, a downstream pressure by the fluid flowing from the outlet to the inlet which places check valve in the closed state can displace the flexible valve member from its mounting position on the support portion such that, in the open state and in the closed state, a central axis (X4) of the flexible valve member is misaligned with a central longitudinal axis (X1) of the check valve.
An edge launch RF signal connector , comprising: a connector body having a support aperture , and one or more interface surfaces (124a-e) operable to interface with an edge launch connector support portion of a first circuit board ; a plurality of ground contact pins (126a-e) supported by the connector body and arrayed about the support aperture of the connector body, each ground contact pin comprising a contact tip and a compliant device operable to facilitate axial movement of the ground contact tip relative to the connector body; and a signal pin supported within the central support aperture of the connector body, the signal pin comprising a contact tip and a compliant device operable to facilitate axial movement of the contact tip, wherein, in response to the edge launch RF signal connector engaging a second circuit board , the plurality of ground contact pins (126a-e) are operable to interface with at least one ground contact pad (142a-e) of the second circuit board, and the signal pin is operable to interface with a signal contact pad of the second circuit board; characterised in that the plurality of ground contact pins (126a-e) are arrayed in a circle around the signal pin . a connector body having a support aperture , and one or more interface surfaces (124a-e) operable to interface with an edge launch connector support portion of a first circuit board ; a plurality of ground contact pins (126a-e) supported by the connector body and arrayed about the support aperture of the connector body, each ground contact pin comprising a contact tip and a compliant device operable to facilitate axial movement of the ground contact tip relative to the connector body; and a signal pin supported within the central support aperture of the connector body, the signal pin comprising a contact tip and a compliant device operable to facilitate axial movement of the contact tip, wherein, in response to the edge launch RF signal connector engaging a second circuit board , the plurality of ground contact pins (126a-e) are operable to interface with at least one ground contact pad (142a-e) of the second circuit board, and the signal pin is operable to interface with a signal contact pad of the second circuit board; characterised in that the plurality of ground contact pins (126a-e) are arrayed in a circle around the signal pin .