mhurhangee/patent-ind-claim-en huggingface dataset:
A retinal scanning type eye examination device comprising: a storage unit configured to store test image data; a laser emitting unit including a laser light source configured to generate an imaging laser beam based on the test image data, the laser emitting unit being configured to project, by using the imaging laser beam, a test image on a retina of an eyeball of a person subjected to an eye examination; an optical component configured to cause the imaging laser beam to converge at an inside of the eyeball of the person; a parameter acquiring unit configured to acquire parameter information for a retinal scanning type eyewear, the parameter information including angle information indicating a rotation angle of the laser emitting unit when the laser emitting unit is rotated around a converging point of the laser beam; and an output unit configured to output the parameter information to an external device. a storage unit configured to store test image data; a laser emitting unit including a laser light source configured to generate an imaging laser beam based on the test image data, the laser emitting unit being configured to project, by using the imaging laser beam, a test image on a retina of an eyeball of a person subjected to an eye examination; an optical component configured to cause the imaging laser beam to converge at an inside of the eyeball of the person; a parameter acquiring unit configured to acquire parameter information for a retinal scanning type eyewear, the parameter information including angle information indicating a rotation angle of the laser emitting unit when the laser emitting unit is rotated around a converging point of the laser beam; and an output unit configured to output the parameter information to an external device.
A method for device-to-device, D2D, communication, the method comprising: transmitting , by a user equipment, UE, a first message to a base station, BS, the first message being a D2D communication request message; in response to the first message, receiving , from the BS, a second message including a radio network terminal identifier, RNTI, for D2D communication, the RNTI for D2D communication being assigned by the BS to the UE; transmitting , to the BS, a buffer status report for D2D communication to request resources for D2D communication; and receiving information on resources for D2D communication from the BS using the RNTI for D2D communication; wherein the buffer status report for D2D communication includes a destination ID, a logical channel group ID, and a buffer size, wherein the buffer status report for D2D communication is identified by media access control protocol data unit, MAC PDU, subheaders with a logical channel identifier, LCID, that is distinct from a LCID which identifies a buffer status report for uplink transmission to the BS. transmitting , by a user equipment, UE, a first message to a base station, BS, the first message being a D2D communication request message; in response to the first message, receiving , from the BS, a second message including a radio network terminal identifier, RNTI, for D2D communication, the RNTI for D2D communication being assigned by the BS to the UE; transmitting , to the BS, a buffer status report for D2D communication to request resources for D2D communication; and receiving information on resources for D2D communication from the BS using the RNTI for D2D communication; wherein the buffer status report for D2D communication includes a destination ID, a logical channel group ID, and a buffer size, wherein the buffer status report for D2D communication is identified by media access control protocol data unit, MAC PDU, subheaders with a logical channel identifier, LCID, that is distinct from a LCID which identifies a buffer status report for uplink transmission to the BS.
A container for a hand-portable, rechargeable direct current storage device, having the following characteristics: - a housing provided with a housing underside with a housing set-down surface , a housing upper side , housing side walls and a housing interior, - an electrical anode contact and - an electrical cathode contact , wherein the housing underside has configured upon it, on mutually opposite edges, set-back guide means which extend in the direction of the housing upper side from a set-down plane (AE) defined by the housing set-down surface , characterized in that the anode contact and the cathode contact in one or more of the set-back guide means , are arranged on the housing at a distance of at least five millimeters from the set-down plane, whereby that region of the respective housing side wall which is adjacent to the anode contact and the cathode contact terminates at a distance of at least five millimeters from the set-down plane (AE), wherein the housing underside , considered from the housing set-down surface , is provided with a stepped surface profile section, at least at the periphery of the housing , whereby said stepped surface profile section which, accordingly, is removed from the set-down plane (AE), is not limited laterally by housing side wall segments such that, even where the container is set down on sludge, any dirt which penetrates to those regions of the housing underside which are recessed in this stepped arrangement will not achieve any lateral purchase. - a housing provided with a housing underside with a housing set-down surface , a housing upper side , housing side walls and a housing interior, - an electrical anode contact and - an electrical cathode contact ,
A robotic system of the type comprising a multi-axis industrial robot having a base structure , an articulated robot wrist , a chain of mutually articulated robot elements connecting the base structure to the robot wrist , and means for controlling the movement of the robot so that positions within a predetermined operating space of the robot can be reached by means of the wrist , the system being characterized in that it comprises a head fixed to the robot wrist and including a telemetric device with three laser measuring devices and a passive video camera viewing device , both incorporated in the head , for the seeking, recognition, relative orientation and/or following of targets or other similar objective signs associated with respective objects or with surface portions of these objects present in the operating space of the robot ,and motor means on each robot element of the chain that can be activated by the control means to move the robot in any direction and orientation in space, in order to enable the head to reach any point in the corresponding operating space, the robot head being designed to intercept the target present in the operating space by using the laser telemetric device and the passive video camera viewing device , to position itself relative to the target with a predetermined relative orientation, and/or to follow the target within the operating space while maintaining a predetermined orientation relative to the target along the target following path.
A method for transmitting information, comprising: receiving , by a terminal, a first downlink control information, DCI, the first DCI being used for scheduling the terminal to transmit uplink data through a physical uplink shared channel, PUSCH, in a target time unit; receiving , by the terminal, a second DCI, wherein a feedback response information of the second DCI is transmitted in the target time unit, and a transmission time of the second DCI is before the target time unit or is the same as the target time unit; wherein the method further comprises: determining, by the terminal, a time interval between the transmission time of the second DCI and the target time unit or between the transmission time of the second DCI and a starting position of the PUSCH; when the time interval is not less than a preset time interval, performing rate matching on the uplink data scheduled by the first DCI according to a number of bits of the feedback response information of the second DCI or at least one resource occupied by the feedback response information of the second DCI; and transmitting , by the terminal through the PUSCH, the feedback response information of the second DCI and the uplink data being rate matched. receiving , by a terminal, a first downlink control information, DCI, the first DCI being used for scheduling the terminal to transmit uplink data through a physical uplink shared channel, PUSCH, in a target time unit; receiving , by the terminal, a second DCI, wherein a feedback response information of the second DCI is transmitted in the target time unit, and a transmission time of the second DCI is before the target time unit or is the same as the target time unit; wherein the method further comprises: determining, by the terminal, a time interval between the transmission time of the second DCI and the target time unit or between the transmission time of the second DCI and a starting position of the PUSCH; when the time interval is not less than a preset time interval, performing rate matching on the uplink data scheduled by the first DCI according to a number of bits of the feedback response information of the second DCI or at least one resource occupied by the feedback response information of the second DCI; and transmitting , by the terminal through the PUSCH, the feedback response information of the second DCI and the uplink data being rate matched. determining, by the terminal, a time interval between the transmission time of the second DCI and the target time unit or between the transmission time of the second DCI and a starting position of the PUSCH; when the time interval is not less than a preset time interval, performing rate matching on the uplink data scheduled by the first DCI according to a number of bits of the feedback response information of the second DCI or at least one resource occupied by the feedback response information of the second DCI; and transmitting , by the terminal through the PUSCH, the feedback response information of the second DCI and the uplink data being rate matched.
Vehicle pneumatic tyre with a tread strip of directional configuration with at least one shoulder-side profile rib which is delimited on one side by a circumferential groove and is divided into tread bars (1 I , 1 II , 1 III , 1 IV , 1 V ) by way of a multiplicity of oblique grooves and/or transverse grooves which run parallel to one another and open into the circumferential groove , which tread bars (1 I , 1 II , 1 III , 1 IV , 1 V ) are delimited on the circumferential groove in each case by way of a bar flank (4 I , 4 II , 4 III , 4 IV , 4 V ) with a leading end (5 I , 5 II , 5 III , 5 IV , 5 V ) which enters the underlying surface first during rolling of the tyre in the case of forward driving (R), and a trailing end (6 I , 6 II , 6 III , 6 IV , 6 V ), the bar flanks (4 I , 4 II , 4 III , 4 IV , 4 V ), as viewed in cross section and in the radial direction, being composed either in a single circumferential section (4 III u, 4 IV u) of a radially inner flank section (7 III , 7 IV ) and a radially outer flank section (8 III , 8 IV ), or being composed in two circumferential sections (4 V u) of corresponding configuration in each case of a radially inner flank section (7 V ) and a radially outer flank section (8 V ), or being composed over their entire circumferential extent of a radially inner flank section (7 I , 7 II ) and a radially outer flank section (8 I , 8 II ), the radial inner flank section (7 I , 7 II , 7 III , 7 IV , 7 V ) running at a constant angle (α) of from 0° to 7° with respect to the radial direction, and the radially outer flank section (8 I , 8 II , 8 III , 8 IV , 8 V ) running at a constant angle (β) of from 40° to 60° with respect to the radial direction, characterized in that the width (b 2 I , b 2 II ) of the or each radially outer flank section (8 I , 8 II , 8 III , 8 IV , 8 V ) of the bar flank (4 I , 4 II , 4 III , 4 IV , 4 V ) increases continuously over its circumferential extent in the direction of the trailing end (6 I , 6 II , 6 III , 6 IV , 6 V ) of the bar flank (4 I , 4 II , 4 III , 4 IV , 4 V ).
A variant carboxylic acid reductase (CAR) polypeptide comprising an amino acid sequence having at least 80% sequence identity to the wild-type CAR polypeptide of SEQ ID NO: 7 and having at least one amino acid substitution selected from the group consisting of S3R, D18R, D18L, D18T, D18P, E20V, E20S, E20R, S22R, S22N, S22G, L80R, R87G, R87E, V191S, F288R, F288S, F288G, Q473L, Q473W, Q473Y, Q473I, Q473H, A535S, D750A, R827C, R827A, I870L, R873S, V926A, V926E, S927K, S927G, M930K, M930R and L1128W, wherein (i) expression of said variant CAR polypeptide in a recombinant host cell results in a higher titer of fatty aldehydes as compared to a recombinant host cell expressing the wild-type CAR polypeptide of SEQ ID NO: 7 or, (ii) expression of said variant CAR polypeptide in a recombinant host cell results in a higher titer of fatty alcohols as compared to a recombinant host cell expressing the wild-type CAR polypeptide of SEQ ID NO: 7.
An RFID detection device for detecting a ferromagnetic item , which is placed on the RFID detection device , wherein the RFID detection device comprises the following components: - A housing , - A RFID inlay , which is positioned in the housing , - A detuning element , which is positioned in the housing , - A magnet , which positioned in the housing and configured to move the detuning element and the RFID inlay relative to each other from a first position in which the detuning elements abuts the RFID inlay to a second position in which the detuning element is spaced apart from the RFID inlay or vice versa, and - The detuning element being configured to detune the RFID inlay when the detuning element abuts the RFID inlay in the first position. - A housing , - A RFID inlay , which is positioned in the housing , - A detuning element , which is positioned in the housing , - A magnet , which positioned in the housing and configured to move the detuning element and the RFID inlay relative to each other from a first position in which the detuning elements abuts the RFID inlay to a second position in which the detuning element is spaced apart from the RFID inlay or vice versa, and - The detuning element being configured to detune the RFID inlay when the detuning element abuts the RFID inlay in the first position.
An integrated smoke cell comprising: an integral housing comprising a ceiling portion and a smoke permeable wall portion , the ceiling portion having an exterior side and an interior side, the smoke permeable wall portion extending from the interior side of the ceiling portion thereby defining a chamber within said housing; an emitter mount disposed on the exterior side of the ceiling portion substantially above a first aperture in said ceiling; a detector mount disposed on the exterior side of the ceiling portion substantially above a second aperture in said ceiling; an emitter mounted in the emitter mount, said emitter comprising an emitting region adjacent to said emitter, the emitting region disposed within said chamber; and a detector mounted in the detector mount, said detector comprising a detecting region adjacent to said detector, the detecting region disposed within said chamber and at least partially intersecting said emitting region, wherein the integral housing is formed as one piece of material, and said emitter and detector are disposed substantially outside said chamber. an integral housing comprising a ceiling portion and a smoke permeable wall portion , the ceiling portion having an exterior side and an interior side, the smoke permeable wall portion extending from the interior side of the ceiling portion thereby defining a chamber within said housing; an emitter mount disposed on the exterior side of the ceiling portion substantially above a first aperture in said ceiling; a detector mount disposed on the exterior side of the ceiling portion substantially above a second aperture in said ceiling; an emitter mounted in the emitter mount, said emitter comprising an emitting region adjacent to said emitter, the emitting region disposed within said chamber; and a detector mounted in the detector mount, said detector comprising a detecting region adjacent to said detector, the detecting region disposed within said chamber and at least partially intersecting said emitting region, wherein the integral housing is formed as one piece of material, and said emitter and detector are disposed substantially outside said chamber.
Blade wheel of an axial turbomachine, which blade wheel has: - a multiplicity of blades (56-69, 76-77) which form a blade row and are suitable and provided for extending in a flow path of the axial turbomachine that is radially outwardly delimited by an outer flow path boundary and radially inwardly delimited by an inner flow path boundary , wherein the blades (56-59, 76-77) are configured so as to be adjustable in terms of their stagger angle, - wherein the blades (56-59, 76-77) have first partial gaps (81, 811-816)) for the outer flow path boundary and/or second partial gaps for the inner flow path boundary , - wherein the first partial gaps (81, 811-816) and the second partial gaps in each case do not extend over the entire axial length of the blades (56-59, 76-77), but only over a partial length, - wherein the partial gaps (81, 811-816, 82) are specified and provided to enable a change in the stagger angle of the blades (56-59, 76-77), characterized in that the multiplicity of blades (56-59, 76-77) form N blocks (B j , B k ) of blades with N ≥ 2, wherein - the blades (56-59, 76-77) of a block (B j , B k ) have in each case identically configured partial gaps (81, 811-816, 82), and - the blades (56-59, 76-77) of at least two mutually adjacent blocks (B j , B k ) have dissimilarly configured partial gaps (81, 811-816, 82). - a multiplicity of blades (56-69, 76-77) which form a blade row and are suitable and provided for extending in a flow path of the axial turbomachine that is radially outwardly delimited by an outer flow path boundary and radially inwardly delimited by an inner flow path boundary , wherein the blades (56-59, 76-77) are configured so as to be adjustable in terms of their stagger angle, - wherein the blades (56-59, 76-77) have first partial gaps (81, 811-816)) for the outer flow path boundary and/or second partial gaps for the inner flow path boundary , - wherein the first partial gaps (81, 811-816) and the second partial gaps in each case do not extend over the entire axial length of the blades (56-59, 76-77), but only over a partial length, - wherein the partial gaps (81, 811-816, 82) are specified and provided to enable a change in the stagger angle of the blades (56-59, 76-77), - the blades (56-59, 76-77) of a block (B j , B k ) have in each case identically configured partial gaps (81, 811-816, 82), and - the blades (56-59, 76-77) of at least two mutually adjacent blocks (B j , B k ) have dissimilarly configured partial gaps (81, 811-816, 82).
A method of impregnating a fiber texture of hollow shape, the method comprising at least the following steps: - introducing a first suspension containing a first powder of solid particles of ceramic or carbon material into an inside volume defined by an inside face of a fiber texture of hollow shape placed in a mold, an outer face of the fiber texture being presented facing a wall of the mold; and - using the action of centrifugal force to impregnate the fiber texture with the first suspension by causing the mold to rotate, the method being characterized in that impregnation of the texture with the first suspension is made by varying the speed of rotation of the mold during the impregnation of the texture with the first suspension . - introducing a first suspension containing a first powder of solid particles of ceramic or carbon material into an inside volume defined by an inside face of a fiber texture of hollow shape placed in a mold, an outer face of the fiber texture being presented facing a wall of the mold; and - using the action of centrifugal force to impregnate the fiber texture with the first suspension by causing the mold to rotate,
A computer-implemented method for providing an indication of a type of bodily waste, the method comprising: detecting, using a first sensor of a disposable article, an occurrence of an event, wherein the event corresponds to an excretion of bodily waste; in response to detecting the occurrence of an event, activating a second sensor of the disposable article, wherein the second sensor is different from the first sensor; capturing, using the second sensor, color information associated with the bodily waste, wherein the captured color information is informative of a type of bodily waste from a plurality of predefined types of bodily waste, wherein the plurality of predefined types of bodily waste are urination, bleeding, a bowel movement, menstruation, and combinations thereof; and providing an output to a caretaker indicative of the type of bodily waste. detecting, using a first sensor of a disposable article, an occurrence of an event, wherein the event corresponds to an excretion of bodily waste; in response to detecting the occurrence of an event, activating a second sensor of the disposable article, wherein the second sensor is different from the first sensor; capturing, using the second sensor, color information associated with the bodily waste, wherein the captured color information is informative of a type of bodily waste from a plurality of predefined types of bodily waste, wherein the plurality of predefined types of bodily waste are urination, bleeding, a bowel movement, menstruation, and combinations thereof; and providing an output to a caretaker indicative of the type of bodily waste.
A computer-implemented method of removing sensitive information from a digital image, the method comprising: receiving an instruction to share the digital image; in response to receiving the instruction to share the digital image, determining that the digital image contains a depiction of a corporate display medium that is classified as sensitive based on a policy, wherein the policy is based on input relating to a selection of an object depicted in a second digital image and updating a respective current policy for the digital image; in response to determining that the digital image contains the depiction of the corporate display medium that is classified as sensitive based on the policy, processing the digital image to modify the depiction; and sharing the digital image. receiving an instruction to share the digital image; in response to receiving the instruction to share the digital image, determining that the digital image contains a depiction of a corporate display medium that is classified as sensitive based on a policy, wherein the policy is based on input relating to a selection of an object depicted in a second digital image and updating a respective current policy for the digital image; in response to determining that the digital image contains the depiction of the corporate display medium that is classified as sensitive based on the policy, processing the digital image to modify the depiction; and that the digital image contains a depiction of a corporate display medium that is classified as sensitive based on a policy, wherein the policy is based on input relating to a selection of an object depicted in a second digital image and updating a respective current policy for the digital image; in response to determining that the digital image contains the depiction of the corporate display medium that is classified as sensitive based on the policy, processing the digital image to modify the depiction; and sharing the digital image.