mhurhangee/ep-ind-claims huggingface dataset:
A camera module, comprising: a lens assembly comprising a plurality of solid lenses (L1, L2, L3, L4); an image sensor (130, 130A) disposed on an optical axis of the plurality of solid lenses (L1, L2, L3, L4); a liquid lens (120, 260) disposed on the optical axis, the liquid lens (120, 260) being disposed above the image sensor (130, 130A), the liquid lens (120, 260) comprising a first liquid and a second liquid that are in contact with each other to form an interface; and a controller, wherein the controller is configured to move the image sensor (130, 130A) in a direction perpendicular to the optical axis and to tilt said interface in a direction depending on a direction in which the image sensor (130, 130A) moves in the direction perpendicular to the optical axis, characterized in that the controller is configured to move the image sensor, tilt the interface by changing a position or a shape of the interface and change a position of at least one solid lens (L1, L2, L3, L4) among the plurality of solid lenses (L1, L2, L3, L4) in a combined manner. a lens assembly comprising a plurality of solid lenses (L1, L2, L3, L4); an image sensor (130, 130A) disposed on an optical axis of the plurality of solid lenses (L1, L2, L3, L4); a liquid lens (120, 260) disposed on the optical axis, the liquid lens (120, 260) being disposed above the image sensor (130, 130A), the liquid lens (120, 260) comprising a first liquid and a second liquid that are in contact with each other to form an interface; and a controller, wherein the controller is configured to move the image sensor (130, 130A) in a direction perpendicular to the optical axis and to tilt said interface in a direction depending on a direction in which the image sensor (130, 130A) moves in the direction perpendicular to the optical axis, characterized in that the controller is configured to move the image sensor, tilt the interface by changing a position or a shape of the interface and change a position of at least one solid lens (L1, L2, L3, L4) among the plurality of solid lenses (L1, L2, L3, L4) in a combined manner.
A shape measuring device measuring a three-dimensional shape of a measurement object, comprising: an irradiation unit (101, 102) which irradiates an optical cutting line onto the measurement object which is conveyed in a prescribed conveyance direction, the optical cutting line being irradiated in a direction that intersects with the conveyance direction; an imaging unit which acquires original image data by capturing an image of the measurement object onto which the optical cutting line has been irradiated; and a position detection unit which detects the position of the optical cutting line, each time the original image data of one horizontal line intersecting with the optical cutting line is input from the imaging unit; characterized by an image synthesis unit which generates one-dimensional sequence data, in which the position of the optical cutting line in each horizontal line detected by the position detection unit are arranged one-dimensionally, and generates synthesized image data by embedding the one-dimensional sequence data in the original image data; a transmission unit which transmits the synthesized image data generated by the image synthesis unit; and a shape calculation unit which receives the synthesized image data and calculates three-dimensional shape data of the measurement object on the basis of the one-dimensional sequence data embedded in the original image data. an irradiation unit (101, 102) which irradiates an optical cutting line onto the measurement object which is conveyed in a prescribed conveyance direction, the optical cutting line being irradiated in a direction that intersects with the conveyance direction; an imaging unit which acquires original image data by capturing an image of the measurement object onto which the optical cutting line has been irradiated; and a position detection unit which detects the position of the optical cutting line, each time the original image data of one horizontal line intersecting with the optical cutting line is input from the imaging unit; characterized by an image synthesis unit which generates one-dimensional sequence data, in which the position of the optical cutting line in each horizontal line detected by the position detection unit are arranged one-dimensionally, and generates synthesized image data by embedding the one-dimensional sequence data in the original image data; a transmission unit which transmits the synthesized image data generated by the image synthesis unit; and a shape calculation unit which receives the synthesized image data and calculates three-dimensional shape data of the measurement object on the basis of the one-dimensional sequence data embedded in the original image data.
A communication optical assembly comprising an optical fiber arrangement operable to detachably receive an optical fiber terminated by a ferrule, a lens arrangement, said lens arrangement being spatially disposed relative to the fiber arrangement so as to be capable of providing an axial substantially collimated and expanded beam of radiation in response to receiving radiation from the optical fiber arrangement and capable of providing a focused beam of radiation to the optical fiber arrangement in response to receiving substantially collimated beam of radiation to the lens arrangement, the optical fiber arrangement comprising a fiber stub with associated ferrule arranged to be spatially disposed between the lens arrangement and the optical fiber for conveying radiation to and/or from the assembly and said assembly further comprising a configuration of elements (110, 130, 200, 260) for spatially disposing the optical fiber arrangement relative to the lens arrangement, characterized in that the configuration of elements (110, 130, 200, 260) is operable to provide for independent adjustment of relative lateral position between the optical fiber arrangement and the lens arrangement in relation to axial position of the optical fiber arrangement relative to the lens arrangement.
A core (1000, 1001, 1002, 2000, 3000, 4000, 5000) for a glide board (1100, 1200, 5100), comprising an upper face and a lower face intended to face the gliding sole, the lower face defining a plane comprising a longitudinal axis oriented along the length of the board and a transverse axis oriented along the width of the board, the core (1000, 1001, 1002, 2000, 3000, 4000, 5000) having a thickness measured in a direction perpendicular to said lower face of the core (1000, 1001, 1002, 2000, 3000, 4000, 5000), said core (1000, 1001, 1002, 2000, 3000, 4000, 5000) comprising: - at least one plywood element (100, 200) of a first type comprising an alternation of layers (101, 201) having wood fibres oriented along the longitudinal axis and layers (102, 202) having wood fibres oriented along the transverse axis, and characterised by - at least one plywood element (110, 210) of a second type comprising an alternation of layers (111, 211) of wood fibres oriented along the longitudinal axis and layers (112, 212) having wood fibres oriented along the thickness of the core (1000, 1001, 1002, 2000, 3000, 4000, 5000). - at least one plywood element (100, 200) of a first type comprising an alternation of layers (101, 201) having wood fibres oriented along the longitudinal axis and layers (102, 202) having wood fibres oriented along the transverse axis, and characterised by - at least one plywood element (110, 210) of a second type comprising an alternation of layers (111, 211) of wood fibres oriented along the longitudinal axis and layers (112, 212) having wood fibres oriented along the thickness of the core (1000, 1001, 1002, 2000, 3000, 4000, 5000).
Biscuit comprising guar gum characterized in that said guar gum consists of native guar gum, with a length between 0.25 and 8 mm, a width between 0.18 and 2 mm and an average length to width ratio between 1.8 and 6.
Inline fuel filter for fuel, in particular Diesel fuel, of an internal combustion engine, in particular of a motor vehicle, having a filter housing with at least one inlet for fuel to be cleaned and at least one outlet for cleaned fuel, in which a filter element is disposed which sealingly separates the at least one inlet from the at least one outlet, and with a heating module for heating the fuel to be cleaned with a heating module housing which is detachably connected with the filter housing, characterized in that the heating module housing is connected with the filter housing by means of a rotary joint and/or connector assembly (30, 60), in particular screwed into the filter housing, screwed onto it or connected with the filter housing by means of a connector assembly, a bayonet connection or a locking connection, the heating module housing and and/or the filter housing being made of synthetic material, the heating module housing featuring a heating module inlet for the fuel to be heated and a heating module outlet for the heated fuel and the heating module outlet being connected with the inlet of the filter housing, the filter housing featuring a housing pot which is closed by means of the heating module housing, the heating module outlet for the heated fuel extending across the complete cross-section of the housing pot.
A composition comprising a biopolymer comprising monomers B, C, X and Y, or at least two biopolymers comprising monomers B, C and X and monomers B, C and Y, respectively, wherein B comprises repeats of pentapeptide VPGXG (SEQ ID NO: 7), preferably B is an amino acid sequence comprising SEQ ID NO: 2, C is an amino acid sequence comprising SEQ ID NO: 3, X is an amino acid sequence comprising SEQ ID NO: 4, and Y comprises 1 to 15 repeats of SEQ ID NO: 8, preferably Y is an amino acid sequence comprising SEQ ID NO: 5. B comprises repeats of pentapeptide VPGXG (SEQ ID NO: 7), preferably B is an amino acid sequence comprising SEQ ID NO: 2, C is an amino acid sequence comprising SEQ ID NO: 3, X is an amino acid sequence comprising SEQ ID NO: 4, and Y comprises 1 to 15 repeats of SEQ ID NO: 8, preferably Y is an amino acid sequence comprising SEQ ID NO: 5.
A method of receiving a channel state information-reference signal, CSI-RS, of a user equipment, UE in a wireless communication system, the method comprising: receiving, from a base station, BS, resource configuration related to the CSI-RS; and receiving, from the BS, the CSI-RS based on the resource configuration, wherein the resource configuration includes resource information related to an index value indicating a location of a CSI-RS resource element where the CSI-RS is transmitted, subframe information related to a period and offset information of a subframe where the CSI-RS is transmitted, and antenna port information on a number of antenna ports where the CSI-RS is transmitted, wherein, when the CSI-RS is set to be transmitted alternately through a normal subframe and a special subframe within one wireless frame: the index value is determined based on a type of the subframe, the index value indicates locations of different CSI-RS resource elements based on whether the CSI-RS is transmitted through the normal subframe or the special subframe, the normal subframe is a subframe for downlink transmission and the special subframe is a subframe for both downlink transmission and uplink transmission. receiving, from a base station, BS, resource configuration related to the CSI-RS; and receiving, from the BS, the CSI-RS based on the resource configuration, wherein the resource configuration includes resource information related to an index value indicating a location of a CSI-RS resource element where the CSI-RS is transmitted, subframe information related to a period and offset information of a subframe where the CSI-RS is transmitted, and antenna port information on a number of antenna ports where the CSI-RS is transmitted, wherein, when the CSI-RS is set to be transmitted alternately through a normal subframe and a special subframe within one wireless frame: the index value is determined based on a type of the subframe, the index value indicates locations of different CSI-RS resource elements based on whether the CSI-RS is transmitted through the normal subframe or the special subframe, the normal subframe is a subframe for downlink transmission and the special subframe is a subframe for both downlink transmission and uplink transmission. the index value is determined based on a type of the subframe, the index value indicates locations of different CSI-RS resource elements based on whether the CSI-RS is transmitted through the normal subframe or the special subframe, the normal subframe is a subframe for downlink transmission and the special subframe is a subframe for both downlink transmission and uplink transmission.
A method of wireless communication, the method comprising: determining, by a base station, a plurality of potential transmission bursts within a fixed frame period in a frame-based equipment, FBE, mode network; reserving, by the base station, a plurality of listen before talk, LBT, gaps before a starting position of each burst of the plurality of potential transmission bursts; communicating, by the base station, a location of the plurality of LBT gaps to one or more network entities connected for communication on the FBE mode network; and contending, by the base station, for access to the fixed frame period at a beginning of the fixed frame period. determining, by a base station, a plurality of potential transmission bursts within a fixed frame period in a frame-based equipment, FBE, mode network; reserving, by the base station, a plurality of listen before talk, LBT, gaps before a starting position of each burst of the plurality of potential transmission bursts; communicating, by the base station, a location of the plurality of LBT gaps to one or more network entities connected for communication on the FBE mode network; and contending, by the base station, for access to the fixed frame period at a beginning of the fixed frame period.
Clamping holder for cutting inserts, with a rigid holding part and a clamping finger, which is resiliently movable relative to the rigid holding part, wherein the holding part and clamping finger define opposing sides of a substantially U-shaped recess to receive a cutting insert, wherein one of these two sides has first and second contact points (4, 5) that are spaced apart from one another for one side of a cutting insert and the opposing side has a third contact point and wherein a stop is provided in the interior of the recess to limit the insertion depth of the cutting insert into the recess, characterised in that the stop is additionally assigned to the side of the cutting insert having the third contact point, wherein the side with two contact points (4, 5) is convex and the side with one contact point is concave, wherein the stop has an angling directed into the interior of the recess and differing from the concave course of curvature of the associated side, and wherein the angling relative to a tangent to the curved course at the angling point is between about 15 and 50o, such that the recess simultaneously acts as a further, fourth lateral contact point relative to the first and second contact points (4, 5) and as a stop to limit the insertion depth of the cutting insert, such that the clamping holder comprises four contact points (4, 5, 6, 7).
Fiber application head, intended to be mounted at the end of a moving system, including an application roller and means for guiding the fibers onto said application roller, means for the application of resin to each fiber (F1, F2), said application means being able to apply resin to the fibers (F1, F2) as they leave the guiding means (32a, 32b), said application means being able to coat the surfaces the fibers opposite the application roller with resin in the form of a film, and/or to deposit resin on said surfaces in the form of a bead.
A process for fabricating an ion-implanted layer in a substrate wherein the substrate comprises a glass, the process comprising: ablating a target layer of tellurium-based glass comprising a cation with incident radiation from a laser in the presence of the substrate and in the presence of a gas at a pressure within the range 72mTorr to 99mTorr, thereby implanting a quantity of the target layer into the substrate to form said ion implanted layer comprising said cation such that the penetration depth of the implanted ions is at least 50nm, and said cation is selected from the group Nd(3+), Yb(3+), Er(3+), Tm(3+), Pr(3+), Ho(3+), Sm(3+), Eu(3+), Tb(3+), Ce(3+) and La (3+).
An electrocardiograph comprising: an electrocardiograph device having (a) a first electrode assembly with a first electrode adapted to measure an electrical signal on a patient's body; (b) a second electrode assembly with a second electrode adapted to measure an electrical signal on the patient's body; (c) control circuitry configured to measure electrocardiogram signals between the first and second electrodes; and (d) a data transmission module configured to transmit the measured electrocardiogram signals to a computing device; and a computing device having a non-transitory computer-readable storage medium storing software that includes instructions that when executed by a processor causes the processor to (a) calculate an average PQRST beat from the measured electrocardiogram signals as the first and second electrodes are sequentially placed in Limb Lead I, II, and III positions on a patient's body for a time required to measure at least one heartbeat in each Limb Lead position, the Limb Lead positions known by the processor; (b) use the relationship Lead III = Lead II - Lead I to time-align and display Limb Leads I, II, and III; and (c) calculate and display augmented Leads aVR, aVL, and aVF from the time-aligned Limb Leads. an electrocardiograph device having (a) a first electrode assembly with a first electrode adapted to measure an electrical signal on a patient's body; (b) a second electrode assembly with a second electrode adapted to measure an electrical signal on the patient's body; (c) control circuitry configured to measure electrocardiogram signals between the first and second electrodes; and (d) a data transmission module configured to transmit the measured electrocardiogram signals to a computing device; and a computing device having a non-transitory computer-readable storage medium storing software that includes instructions that when executed by a processor causes the processor to (a) calculate an average PQRST beat from the measured electrocardiogram signals as the first and second electrodes are sequentially placed in Limb Lead I, II, and III positions on a patient's body for a time required to measure at least one heartbeat in each Limb Lead position, the Limb Lead positions known by the processor; (b) use the relationship Lead III = Lead II - Lead I to time-align and display Limb Leads I, II, and III; and (c) calculate and display augmented Leads aVR, aVL, and aVF from the time-aligned Limb Leads.
A method for controlling the thermal preconditioning of a vehicle with engine (MOTH) equipped with an air-conditioning unit (HVAC) and with a plurality of sensors (C1-C7), said method for controlling being such that it consists, from information delivered by the plurality of sensors: - in locating (100, 400, 500) the vehicle so as to determine its position with respect to a confined space; and - if the position of the vehicle, with respect to the confined space, is determined to be at the exterior of the confined space, to then command the starting of the engine so as to permit the preconditioning by the air-conditioning system, if not, to prohibit the thermal preconditioning of the vehicle by the engine, characterized in that it consists, for locating the vehicle: - in a first step, in measuring the level of pollution of the ambient air from a pollution level sensor, during a specified period, so as to detect a specified increase in the level of pollution of the air; said controlling method being characterized in that, - in a second step, in acquiring images of the environment of the vehicle from a front camera and in submitting them to a user of the vehicle with a request permitting him to confirm that the environment of the vehicle is a confined space; - in a third step, following the second step, in detecting from an interactive man-machine interface, a confirmation of the request submitted to the user of the vehicle, confirming from submitted images, that the vehicle is in a confined space; and - if the result of at least one of the first and third steps (120, 130) is verified, in deducing therefrom that the vehicle is located inside a confined space. - in locating (100, 400, 500) the vehicle so as to determine its position with respect to a confined space; and - if the position of the vehicle, with respect to the confined space, is determined to be at the exterior of the confined space, to then command the starting of the engine so as to permit the preconditioning by the air-conditioning system, if not, to prohibit the thermal preconditioning of the vehicle by the engine, characterized in that it consists, for locating the vehicle: - in a first step, in measuring the level of pollution of the ambient air from a pollution level sensor, during a specified period, so as to detect a specified increase in the level of pollution of the air; - in a second step, in acquiring images of the environment of the vehicle from a front camera and in submitting them to a user of the vehicle with a request permitting him to confirm that the environment of the vehicle is a confined space; - in a third step, following the second step, in detecting from an interactive man-machine interface, a confirmation of the request submitted to the user of the vehicle, confirming from submitted images, that the vehicle is in a confined space; and - if the result of at least one of the first and third steps (120, 130) is verified, in deducing therefrom that the vehicle is located inside a confined space.