mhurhangee/ep-ind-claims huggingface dataset:
A device for detecting movements of a lower jaw relative to the upper jaw of a vertebrate, comprising - a first holder to be placed in a fixed allocation to the upper jaw, in particular on the vertebrate's head, for accommodating transmitting or receiving units (12, 23, 26) of a position determining system for motion detection, - a second holder (40A; H1) to be fixed on the left side to the lower jaw for accommodating corresponding left-side receiving, respectively transmitting units (11A, 24A, 25A) of the position determining system, - a third holder (40B; H2) to be fixed on the right side to the lower jaw for receiving corresponding right-side receiving, respectively transmitting units (11B, 24B, 25B) of the position determining system, wherein the second and third holders (40A, 40B; H1, H2) are each configured to be detachably mounted to the lower jaw, - a first evaluating unit for processing signals from the receiving units (12, 23) in order to generate a differentiated dynamic mapping of the movements of the left and right sides of the lower jaw from relative positional changes of the transmitting units (11, 24, 25) that are associated with the movements of the lower jaw and detected by the receiving units (12, 23), and - a mounting tool for precisely placing the second and third holders (40A, 40B; H1, H2) at the left-side, respectively right-side lower jaw, which rigidly couples the second and third holders (40A, 40B; H1, H2) temporarily to each other and is detachable after mounting to the lower jaw so as to release the second and third holders (40A, 40B; H1, H2) for independent movements. - a first holder to be placed in a fixed allocation to the upper jaw, in particular on the vertebrate's head, for accommodating transmitting or receiving units (12, 23, 26) of a position determining system for motion detection, - a second holder (40A; H1) to be fixed on the left side to the lower jaw for accommodating corresponding left-side receiving, respectively transmitting units (11A, 24A, 25A) of the position determining system, - a third holder (40B; H2) to be fixed on the right side to the lower jaw for receiving corresponding right-side receiving, respectively transmitting units (11B, 24B, 25B) of the position determining system, wherein the second and third holders (40A, 40B; H1, H2) are each configured to be detachably mounted to the lower jaw, - a first evaluating unit for processing signals from the receiving units (12, 23) in order to generate a differentiated dynamic mapping of the movements of the left and right sides of the lower jaw from relative positional changes of the transmitting units (11, 24, 25) that are associated with the movements of the lower jaw and detected by the receiving units (12, 23), and - a mounting tool for precisely placing the second and third holders (40A, 40B; H1, H2) at the left-side, respectively right-side lower jaw, which rigidly couples the second and third holders (40A, 40B; H1, H2) temporarily to each other and is detachable after mounting to the lower jaw so as to release the second and third holders (40A, 40B; H1, H2) for independent movements.
A method for determining an origin of neutrophil gelatinase-associated lipocalin (NGAL) protein in a sample from an individual, comprising (a) determining relative amounts of monomeric, dimeric and heterodimeric forms of NGAL protein in the sample, and (b) comparing the determined amounts, wherein a predominate amount of monomeric and/or heterodimeric NGAL protein as compared with dimeric NGAL protein indicates NGAL protein originating from the individual's kidney, while an equal or predominate amount of dimeric NGAL protein as compared with monomeric or heterodimeric NGAL protein indicates NGAL protein originating in the individual's neutrophils. (a) determining relative amounts of monomeric, dimeric and heterodimeric forms of NGAL protein in the sample, and (b) comparing the determined amounts, wherein a predominate amount of monomeric and/or heterodimeric NGAL protein as compared with dimeric NGAL protein indicates NGAL protein originating from the individual's kidney, while an equal or predominate amount of dimeric NGAL protein as compared with monomeric or heterodimeric NGAL protein indicates NGAL protein originating in the individual's neutrophils.
An apparatus for controlling a vehicle display, comprising: an input configured to receive driver request information, driving road information, and steering wheel movement information; and a processor configured to control a vehicle internal display to be transparent based on any one or any combination of the driver request information, the driving road information, and the steering wheel movement information, and transmit a control signal to change a portion of the vehicle internal display to be transparent, characterized in that the input is further configured to receive the driving road information from navigation map information or child protection area sign identification information, and wherein the processor is further configured to change the portion of the vehicle internal display to be transparent, in response to a current driving road being located in the child protection area. an input configured to receive driver request information, driving road information, and steering wheel movement information; and a processor configured to control a vehicle internal display to be transparent based on any one or any combination of the driver request information, the driving road information, and the steering wheel movement information, and transmit a control signal to change a portion of the vehicle internal display to be transparent, characterized in that the input is further configured to receive the driving road information from navigation map information or child protection area sign identification information, and control a vehicle internal display to be transparent based on any one or any combination of the driver request information, the driving road information, and the steering wheel movement information, and transmit a control signal to change a portion of the vehicle internal display to be transparent, characterized in that the input is further configured to receive the driving road information from navigation map information or child protection area sign identification information, and wherein the processor is further configured to change the portion of the vehicle internal display to be transparent, in response to a current driving road being located in the child protection area.
A vehicle-body structure comprising: a pair of left and right side sills extending in a front-rear direction of a vehicle; floor panels extending from vehicle-width-direction inner side ends of the side sills toward a vehicle-width-direction inner side or a center of the vehicle; a floor tunnel connecting vehicle-width-direction inner side ends of the floor panels and having a shape protruding upward; a pair of left and right cross members (6, 7) connecting the side sills and the floor tunnel; seat mounting brackets mounted to ends in a vehicle width direction of the cross members (6, 7); characterised by further comprising a pair of left and right backbone frames facing a top and a side of the floor tunnel and fixed to the floor tunnel, the pair of left and right backbone frames extending in a vehicle front-rear direction; and a tunnel reinforcement having a front projection, an intermediate projection, and a rear projection abutting on an underside of the floor tunnel, wherein the backbone frame includes a plurality of beads abutting on the floor tunnel, and the tunnel reinforcement is fixed at the front projection, the intermediate projection, and the rear projection to the seat mounting bracket via the floor tunnel and is also fixed to the plurality of beads of the backbone frame via the floor tunnel. a pair of left and right side sills extending in a front-rear direction of a vehicle; floor panels extending from vehicle-width-direction inner side ends of the side sills toward a vehicle-width-direction inner side or a center of the vehicle; a floor tunnel connecting vehicle-width-direction inner side ends of the floor panels and having a shape protruding upward; a pair of left and right cross members (6, 7) connecting the side sills and the floor tunnel; seat mounting brackets mounted to ends in a vehicle width direction of the cross members (6, 7); characterised by further comprising a pair of left and right backbone frames facing a top and a side of the floor tunnel and fixed to the floor tunnel, the pair of left and right backbone frames extending in a vehicle front-rear direction; and a tunnel reinforcement having a front projection, an intermediate projection, and a rear projection abutting on an underside of the floor tunnel, wherein the backbone frame includes a plurality of beads abutting on the floor tunnel, and the tunnel reinforcement is fixed at the front projection, the intermediate projection, and the rear projection to the seat mounting bracket via the floor tunnel and is also fixed to the plurality of beads of the backbone frame via the floor tunnel.
Heating device for coated batches of products, comprising at least: - an oven with an internal enclosure; - at least one conveyor passing through said enclosure; - a heating means for said enclosure, said heating means comprising at least one input (4, 40, 41) and at least one output (5, 50, 51); - said heating means comprising at least one heating module (30, 31); - each heating module (30, 31) comprising a heating block, at least one circuit (7, 70, 71) linking, at the output (5, 50, 51), said heating block and opening inside said enclosure, and at least one means for circulating an air stream heated by said heating block to said circuit (7, 70, 71), said circulating means comprising at least one air intake, said air intake being situated at the input (4, 40, 41) and being linked to the inside of the enclosure; characterized in that it comprises at least one recycling circuit linking at least said output (5, 50, 51) to said one input (4, 40, 41) of said heating means, said recycling circuit being distinct from the at least one circuit (7, 70, 71). - an oven with an internal enclosure; - at least one conveyor passing through said enclosure; - a heating means for said enclosure, said heating means comprising at least one input (4, 40, 41) and at least one output (5, 50, 51); - said heating means comprising at least one heating module (30, 31); - each heating module (30, 31) comprising a heating block, at least one circuit (7, 70, 71) linking, at the output (5, 50, 51), said heating block and opening inside said enclosure, and at least one means for circulating an air stream heated by said heating block to said circuit (7, 70, 71), said circulating means comprising at least one air intake, said air intake being situated at the input (4, 40, 41) and being linked to the inside of the enclosure;
A trolley for a cable transportation system transportation unit; the trolley extending along a longitudinal axis and comprising a frame; a clamp supported by the frame and designed to connect the trolley to a cable; and a first and second guide (17, 18) which are mounted and project on opposite sides of the clamp, taper towards their respective free ends, and have respective bottom faces (19, 20) designed to contact the cable; wherein the bottom face of the second guide has a first portion adjacent to the clamp, and a second portion located at the free end of the second guide and sloping upwards with respect to the first portion; characterised in that the second guide comprises an end portion bent upwards to define the first and second portion (24, 25) along the bottom face, and being designed to allow the first guide of a further trolley, adjacent to and aligned with the trolley along the longitudinal axis, to fit beneath the second guide.
An apparatus comprising: at least one interferometer where the at least one interferometer is configured to cause interference of an electromagnetic input signal; wherein the at least one interferometer is configured to receive at least one sensor input signal from at least one sensor such that the sensor input signal controls the interference of the electromagnetic input signal by the at least one interferometer; wherein the at least one interferometer is configured to provide a plurality of outputs where each of the plurality of outputs is provided by the at least one interferometer responding to the at least one sensor input signal with a different sensitivity; and at least one detector configured to detect the plurality of outputs of the at least one interferometer and provide a digital output signal indicative of the at least one sensor input signal. at least one interferometer where the at least one interferometer is configured to cause interference of an electromagnetic input signal; wherein the at least one interferometer is configured to receive at least one sensor input signal from at least one sensor such that the sensor input signal controls the interference of the electromagnetic input signal by the at least one interferometer; wherein the at least one interferometer is configured to provide a plurality of outputs where each of the plurality of outputs is provided by the at least one interferometer responding to the at least one sensor input signal with a different sensitivity; and at least one detector configured to detect the plurality of outputs of the at least one interferometer and provide a digital output signal indicative of the at least one sensor input signal.
A liquid run-off disposal system comprising: an infiltration chamber having first and second sidewalls, in cross-sectional view the first and second sidewalls each include an inner surface facing an inside of the chamber and outer surface facing an outside of the chamber, and wherein the infiltration chamber is manufactured from a moulded plastics material; the first and second sidewalls each include a plurality of louvre-shaped apertures provided integrally therein, wherein in cross-sectional view each louvre-shaped aperture includes an upper surface and a lower surface which are angled upwards from the outer surface towards the inside of the chamber; and, the upper and lower surfaces (22, 24) each comprising one or more angled sections, each angled section extending at an angle relative to an adjacent section of the upper and lower surfaces (22, 24) respectively and being arranged so as to form a substantially vertical flow path through a portion only of the louvre-shaped aperture resulting in a serpentine flow path through the louvre-shaped aperture, the angled sections of the upper and lower surfaces facing each other and being substantially parallel and arranged at an angle and of a length so as to substantially overlap when viewed in a horizontal direction so that the apertures admit the exit of water but substantially inhibit the entry of soil wherein, in use, when liquid run-off is piped into the infiltration chamber it can drain away by passing through the apertures and infiltrating into the surrounding soil. an infiltration chamber having first and second sidewalls, in cross-sectional view the first and second sidewalls each include an inner surface facing an inside of the chamber and outer surface facing an outside of the chamber, and wherein the infiltration chamber is manufactured from a moulded plastics material; the first and second sidewalls each include a plurality of louvre-shaped apertures provided integrally therein, wherein in cross-sectional view each louvre-shaped aperture includes an upper surface and a lower surface which are angled upwards from the outer surface towards the inside of the chamber; and, the upper and lower surfaces (22, 24) each comprising one or more angled sections, each angled section extending at an angle relative to an adjacent section of the upper and lower surfaces (22, 24) respectively and being arranged so as to form a substantially vertical flow path through a portion only of the louvre-shaped aperture resulting in a serpentine flow path through the louvre-shaped aperture, the angled sections of the upper and lower surfaces facing each other and being substantially parallel and arranged at an angle and of a length so as to substantially overlap when viewed in a horizontal direction so that the apertures admit the exit of water but substantially inhibit the entry of soil wherein, in use, when liquid run-off is piped into the infiltration chamber it can drain away by passing through the apertures and infiltrating into the surrounding soil.
Method for monitoring the operation of a plurality of wind energy installations (11, 11a, 11b, 11c), having the following steps: a. recording state data relating to the wind energy installations (11, 11a, 11b, 11c); b. finding discrepancies between the state data and an associated comparison value; c. determining a failure probability of the wind energy installations (11, 11a, 11b, 11c) on the basis of any discrepancy found; d. determining an availability value for the wind energy installations (11, 11a, 11b, 11c) from the ratio of the actually produced amount of electrical energy to the total amount of energy which can potentially be produced; e. combining the availability value and the failure probability to form a repair priority; and f. associating the repair priority with the wind energy installations (11, 11a, 11b, 11c). a. recording state data relating to the wind energy installations (11, 11a, 11b, 11c); b. finding discrepancies between the state data and an associated comparison value; c. determining a failure probability of the wind energy installations (11, 11a, 11b, 11c) on the basis of any discrepancy found; d. determining an availability value for the wind energy installations (11, 11a, 11b, 11c) from the ratio of the actually produced amount of electrical energy to the total amount of energy which can potentially be produced; e. combining the availability value and the failure probability to form a repair priority; and f. associating the repair priority with the wind energy installations (11, 11a, 11b, 11c).
A digitizer-integrated display module comprising: a display panel (10, 20) for forming an image, the display panel comprising a liquid crystal panel for forming the image; and a backlight panel positioned under the liquid crystal panel to illuminate light to the rear side of the liquid crystal panel; a digitizer module formed below the display panel to detect electromagnetic type digitizer input; characterized by: a non-magnetic metal structure enclosing the periphery of the display panel and the periphery and the entirety of the bottom side of the digitizer module; and a main board disposed under the non-magnetic metal structure, wherein the main board is configured to control the display panel to form the image to be displayed, and is further configured to process a signal input. a display panel (10, 20) for forming an image, the display panel comprising a liquid crystal panel for forming the image; and a backlight panel positioned under the liquid crystal panel to illuminate light to the rear side of the liquid crystal panel; a digitizer module formed below the display panel to detect electromagnetic type digitizer input; characterized by: a non-magnetic metal structure enclosing the periphery of the display panel and the periphery and the entirety of the bottom side of the digitizer module; and a main board disposed under the non-magnetic metal structure, wherein the main board is configured to control the display panel to form the image to be displayed, and is further configured to process a signal input. a non-magnetic metal structure enclosing the periphery of the display panel and the periphery and the entirety of the bottom side of the digitizer module; and a main board disposed under the non-magnetic metal structure, wherein the main board is configured to control the display panel to form the image to be displayed, and is further configured to process a signal input.
A vertical axis wind turbine having a turbine rotor and wind leading vanes, which vanes are located symmetrically circumferentially around said turbine rotor, wherein the wind leading vanes are fixed on a stator, which turbine is characterised in having a turbine rotor with 8 rotor blades and a stator having 8 vertically extending stator vanes, wherein said vanes are mounted circumferentially around said turbine rotor on a framework surrounding said turbine rotor, wherein said framework has the shape of a polygon with 8 tips and whose centre-axis falls together with the rotation axis of said rotor, wherein the stator, when viewed from above, has the shape of a symmetrical star with 8 tips, and wherein said stator vanes are mounted at the tips of said polygon extending along the outer side of said polygon in the direction of rotation of said turbine, and wherein said rotor blades are fixed on carrier arms, which carrier arms are fixed symmetrically at a turbine shaft in an angle relative to each other of 45°, said turbine shaft building the rotation axis of the rotor.
A content delivery system comprising a server device and a client device which are adapted to be communicable with each other, wherein the server device is adapted to be able to transmit media data, formed by encoding content, to the client device, the client device is adapted to, while receiving the media data transmitted by the server device, store received data of the media data in a media reproduction buffer, read stored media data from the media reproduction buffer, and reproduce the content, and the content delivery system further comprises: rate output means (102, 407), located at either the server device or the client device, for calculating and outputting a combination of a transmission rate and a media rate based on an objective function, the transmission rate representing a quantity of the media data transmitted per a unit time by the server device, the media rate representing a quantity of the media data required for reproducing content, by the client device, at a single speed for the unit time, the objective function using the transmission rate and the media rate as variables and determining an evaluation value evaluating a combination of a Quality of Experience, QoE, which is a service quality that a user of the client device experiences when viewing the content reproduced by the client device, and a delivery cost representing a cost involved in delivering the media data so as to correspond to the variables; and media data transmission means, located at the server device, for transmitting the media data, encoded at the media rate output from the rate output means (102, 407), from the server device to the client device at the transmission rate output from the rate output means (102, 407). rate output means (102, 407), located at either the server device or the client device, for calculating and outputting a combination of a transmission rate and a media rate based on an objective function, the transmission rate representing a quantity of the media data transmitted per a unit time by the server device, the media rate representing a quantity of the media data required for reproducing content, by the client device, at a single speed for the unit time, the objective function using the transmission rate and the media rate as variables and determining an evaluation value evaluating a combination of a Quality of Experience, QoE, which is a service quality that a user of the client device experiences when viewing the content reproduced by the client device, and a delivery cost representing a cost involved in delivering the media data so as to correspond to the variables; and media data transmission means, located at the server device, for transmitting the media data, encoded at the media rate output from the rate output means (102, 407), from the server device to the client device at the transmission rate output from the rate output means (102, 407).