mhurhangee/ep-ind-claims huggingface dataset:
A medical device (100; 800), comprising: a plurality of branch members (108; 808) having a proximal end and a distal end; and a first movable member (112; 812), and a second movable member (113; 813), wherein the plurality of branch members (108; 808) and the first and second movable members (112, 113; 812, 113) form a basket movable between a collapsed configuration and an expanded configuration, characterised in that the entireties of the first and second movable members (112, 113; 812, 113) are configured to move distally with respect to the plurality of branch members (108; 808). a plurality of branch members (108; 808) having a proximal end and a distal end; and a first movable member (112; 812), and a second movable member (113; 813), wherein the plurality of branch members (108; 808) and the first and second movable members (112, 113; 812, 113) form a basket movable between a collapsed configuration and an expanded configuration, characterised in that the entireties of the first and second movable members (112, 113; 812, 113) are configured to move distally with respect to the plurality of branch members (108; 808).
A touch display panel, comprising: a first substrate; a second substrate; a third substrate, wherein the second substrate is positioned between the first substrate and the third substrate; a medium display layer positioned between the first substrate and the second substrate; a plurality of pixels positioned between the first substrate and the medium display layer, wherein each of the pixels comprises a pixel electrode and a common electrode, and at least one of the pixel electrode and the common electrode has a plurality of slits; a plurality of viewing angle control electrode units positioned between the second substrate and the medium display layer, and arranged in sequence along a first direction in a X axis; and a plurality of touch receiving electrode units positioned between the second substrate and the third substrate, and arranged along in sequence a second direction in a Y axis, wherein the plurality of touch receiving electrode units are partially overlapping with the viewing angle control electrode units in a vertical direction in a Z axis projected on the first substrate, and the viewing angle control electrode units and the touch receiving electrode units form a touch unit. a first substrate; a second substrate; a third substrate, wherein the second substrate is positioned between the first substrate and the third substrate; a medium display layer positioned between the first substrate and the second substrate; a plurality of pixels positioned between the first substrate and the medium display layer, wherein each of the pixels comprises a pixel electrode and a common electrode, and at least one of the pixel electrode and the common electrode has a plurality of slits; a plurality of viewing angle control electrode units positioned between the second substrate and the medium display layer, and arranged in sequence along a first direction in a X axis; and a plurality of touch receiving electrode units positioned between the second substrate and the third substrate, and arranged along in sequence a second direction in a Y axis, wherein the plurality of touch receiving electrode units are partially overlapping with the viewing angle control electrode units in a vertical direction in a Z axis projected on the first substrate, and the viewing angle control electrode units and the touch receiving electrode units form a touch unit.
An article of thermal protective clothing suitable for use in arc protection comprising woven fabric, the fabric comprising yarns comprising modacrylic fiber and aramid fiber, wherein, a) 25 to 100 parts by weight of the aramid fiber present in the yarns contain 0.5 to 20 weight percent discrete carbon particles based on the amount of carbon particles in an individual fiber, the carbon particles being homogeneously dispersed in that fiber; and b) 0 to 75 parts by weight of the aramid fiber present in the yarns are free of discrete carbon particles; the fabric having an Arc Thermal Performance Value (ATPV) of 10 cal/cm 2 (41.8 Joule/cm 2) or greater at a basis weight of 6 ounces per square yard (203 grams per square meter) or less as determined in accordance with ASTM F-1959-99, and a total content of 0.1 to 3 weight percent discrete carbon particles. a) 25 to 100 parts by weight of the aramid fiber present in the yarns contain 0.5 to 20 weight percent discrete carbon particles based on the amount of carbon particles in an individual fiber, the carbon particles being homogeneously dispersed in that fiber; and b) 0 to 75 parts by weight of the aramid fiber present in the yarns are free of discrete carbon particles;
A computer readable medium storing a computer program having instruction which, when executed by a computing device or system, cause said computing device or system to perform a method comprising: receiving image data with luminance values representing absolute luminance values L to be encoded; accessing an OETF encode function for mapping absolute luminance values into digital code values; based on the receiving and the accessing, encoding the received image data into reference encoded image data; and outputting the reference encoded image data, wherein the luminance values of the received image data are represented by the digital code values in the reference encoded image data; wherein the OETF encode function is based at least in part on a functional model of: V = c 1 + c 2 Y n 1 + c 3 Y n m, wherein: Y is a normalized value of a corresponding one of the absolute luminance values L, wherein 0 ≤ Y ≤ 1, V is a normalized value of a corresponding one of the digital code values D that are output as reference encoded image data, wherein 0 ≤ V ≤ 1, and n, m, c 1, c 2, and c 3 are predetermined values, wherein: n = 2610 4096 × 1 4 ≃ 0.1593017578125; m = 2523 4096 × 128 ≃ 78.84375; c 1 = c 3 − c 2 + 1 = 3424 4096 ≃ 0.8359375; c 2 = 2413 4096 × 32 ≃ 18.8515625; and c 3 = 2392 4096 × 32 ≃ 18.6875. receiving image data with luminance values representing absolute luminance values L to be encoded; accessing an OETF encode function for mapping absolute luminance values into digital code values; based on the receiving and the accessing, encoding the received image data into reference encoded image data; and outputting the reference encoded image data, wherein the luminance values of the received image data are represented by the digital code values in the reference encoded image data; wherein the OETF encode function is based at least in part on a functional model of: V = c 1 + c 2 Y n 1 + c 3 Y n m, wherein: Y is a normalized value of a corresponding one of the absolute luminance values L, wherein 0 ≤ Y ≤ 1, V is a normalized value of a corresponding one of the digital code values D that are output as reference encoded image data, wherein 0 ≤ V ≤ 1, and n, m, c 1, c 2, and c 3 are predetermined values, wherein: n = 2610 4096 × 1 4 ≃ 0.1593017578125; m = 2523 4096 × 128 ≃ 78.84375; c 1 = c 3 − c 2 + 1 = 3424 4096 ≃ 0.8359375; c 2 = 2413 4096 × 32 ≃ 18.8515625; and c 3 = 2392 4096 × 32 ≃ 18.6875. Y is a normalized value of a corresponding one of the absolute luminance values L, wherein 0 ≤ Y ≤ 1, V is a normalized value of a corresponding one of the digital code values D that are output as reference encoded image data, wherein 0 ≤ V ≤ 1, and n, m, c 1, c 2, and c 3 are predetermined values, wherein: n = 2610 4096 × 1 4 ≃ 0.1593017578125; m = 2523 4096 × 128 ≃ 78.84375; c 1 = c 3 − c 2 + 1 = 3424 4096 ≃ 0.8359375; c 2 = 2413 4096 × 32 ≃ 18.8515625; and c 3 = 2392 4096 × 32 ≃ 18.6875.
A method for selecting a cultivated tomato plant comprising QTL1 linked to increased fruit firmness compared to fruit of a control tomato plant not comprising said QTL1, wherein said method comprises the following steps: a) providing a sample of genomic DNA from a tomato plant; b) detecting in the sample of genomic DNA the presence of at least one DNA marker linked to QTL1; wherein said DNA marker is selected in the list comprising DNA markers TG599, NT3374FM, TG246, and NT5880VC. a) providing a sample of genomic DNA from a tomato plant; b) detecting in the sample of genomic DNA the presence of at least one DNA marker linked to QTL1;
A system for compensating for a decline in performance of a power skin brush comprising: a power skin brush having a handle with an oscillating brushhead workpiece and a drive system therefor, the brushhead workpiece having an RFID tag; characterised in that the system further comprises: an RFID reader in the handle responsive to the RFID tag moving past the reader to produce information concerning time of actual use or the number of individual use events of the brushhead workpiece; and a microprocessor for calculating the time of actual use or the number of individual use events of the brushhead workpiece and determining any decline in performance based on said calculation of time of actual use or the number of individual use events in accordance with stored information present in the appliance, and for adjusting the frequency or duty cycle of the drive system for the appliance in accordance with the stored information to maintain performance of the appliance. a power skin brush having a handle with an oscillating brushhead workpiece and a drive system therefor, the brushhead workpiece having an RFID tag; characterised in that the system further comprises: an RFID reader in the handle responsive to the RFID tag moving past the reader to produce information concerning time of actual use or the number of individual use events of the brushhead workpiece; and a microprocessor for calculating the time of actual use or the number of individual use events of the brushhead workpiece and determining any decline in performance based on said calculation of time of actual use or the number of individual use events in accordance with stored information present in the appliance, and for adjusting the frequency or duty cycle of the drive system for the appliance in accordance with the stored information to maintain performance of the appliance. an RFID reader in the handle responsive to the RFID tag moving past the reader to produce information concerning time of actual use or the number of individual use events of the brushhead workpiece; and a microprocessor for calculating the time of actual use or the number of individual use events of the brushhead workpiece and determining any decline in performance based on said calculation of time of actual use or the number of individual use events in accordance with stored information present in the appliance, and for adjusting the frequency or duty cycle of the drive system for the appliance in accordance with the stored information to maintain performance of the appliance.
A head worn display, HWD, comprising: a head attachment region; an internal display viewable by a user and including variable transparency areas, the internal display arranged to display at least a portion of an external region external to the HWD; and a controller configured to control the variable transparency areas to block view of a region of the external region and to control the internal display to overlay information in a region of the internal display corresponding to the region of the external region which is blocked; characterized in that the controller is configured to control the internal display to display direction information in a first overlay region in an inner region of the internal display, and to control the internal display to display peripheral information in a second overlay region in a peripheral region of the internal display, wherein the direction information directs a user to view the peripheral information in the peripheral region of the internal display. a head attachment region; an internal display viewable by a user and including variable transparency areas, the internal display arranged to display at least a portion of an external region external to the HWD; and a controller configured to control the variable transparency areas to block view of a region of the external region and to control the internal display to overlay information in a region of the internal display corresponding to the region of the external region which is blocked; characterized in that the controller is configured to control the internal display to display direction information in a first overlay region in an inner region of the internal display, and to control the internal display to display peripheral information in a second overlay region in a peripheral region of the internal display, wherein the direction information directs a user to view the peripheral information in the peripheral region of the internal display.
An ultra-low crosslinked microgel comprising an ultra-low crosslinked polymer having <0.5% crosslinking densities, wherein the microgel comprises a binding moiety specific for fibrin conjugated to the exterior of the microgel, and wherein the binding moiety has little or no binding to soluble fibrinogen under physiological conditions compared to its binding to fibrin.
An illumination device comprising: - a plurality of concave shaped reflectors (20-1, 20-2, 20-n) each reflector comprising a narrow end, a wide end, as well as a sloped edge wall connecting the narrow end and the wide end, thereby forming a first reflector cavity with the wide end constituting a light emission window, a first light source provided within the first reflector cavity at or near the narrow end, an optical element provided within the first reflector cavity between the first light source and the light emission window, the optical element partitioning the first reflector cavity in a first chamber and a second chamber, - characterised in that the illumination device comprises at least one further light source provided outside the first reflector cavities in a second reflector cavity formed by neighbouring sloped edge walls of the plurality of concave shaped reflectors (20-1, 20-2, 20-n). - a plurality of concave shaped reflectors (20-1, 20-2, 20-n) each reflector comprising a narrow end, a wide end, as well as a sloped edge wall connecting the narrow end and the wide end, thereby forming a first reflector cavity with the wide end constituting a light emission window, a first light source provided within the first reflector cavity at or near the narrow end, an optical element provided within the first reflector cavity between the first light source and the light emission window, the optical element partitioning the first reflector cavity in a first chamber and a second chamber, a narrow end, a wide end, as well as a sloped edge wall connecting the narrow end and the wide end, thereby forming a first reflector cavity with the wide end constituting a light emission window, a first light source provided within the first reflector cavity at or near the narrow end, an optical element provided within the first reflector cavity between the first light source and the light emission window, the optical element partitioning the first reflector cavity in a first chamber and a second chamber, - characterised in that the illumination device comprises at least one further light source provided outside the first reflector cavities in a second reflector cavity formed by neighbouring sloped edge walls of the plurality of concave shaped reflectors (20-1, 20-2, 20-n).
A method of fractionating a non-wood lignocellulosic material, characterized in that it comprises the steps of: - heating the material in an alkaline solution of a pH above 9.0 at a temperature below the glass transition temperature of the hemicellulose-lignin complex, - draining the material to obtain a heat-treated wet material, - adding an amount of hot water to the heat-treated and drained material, said amount being 0.5 to 3 times the weight of the drained wet material, to prompt separation of the components of the lignocellulosic material and remove a gel layer from the cellular fibres, - subjecting the heat-treated wet material of a pH above 9.0 to grinding, and - obtaining ground cellulosic fibre material. - heating the material in an alkaline solution of a pH above 9.0 at a temperature below the glass transition temperature of the hemicellulose-lignin complex, - draining the material to obtain a heat-treated wet material, - adding an amount of hot water to the heat-treated and drained material, said amount being 0.5 to 3 times the weight of the drained wet material, to prompt separation of the components of the lignocellulosic material and remove a gel layer from the cellular fibres, - subjecting the heat-treated wet material of a pH above 9.0 to grinding, and - obtaining ground cellulosic fibre material.
A substrate with conductive film comprising: a base material; and a film of a conductive metal oxide arranged on an upper part of the base material, wherein the film includes, by a top plan view, a first region and a second region, the second region is configured of a same material as the first region, and an electric resistance of the second region is higher than an electric resistance of the first region, wherein the second region includes a part configured by a plurality of cellular sections surrounded by a plurality of fine cracks, and characterised in that in the part, each fine crack has a width of 1 nm to 50 nm, and each cellular section has a largest measure within the range of 1 μ m to 7 μ m. a base material; and a film of a conductive metal oxide arranged on an upper part of the base material, wherein the film includes, by a top plan view, a first region and a second region, the second region is configured of a same material as the first region, and an electric resistance of the second region is higher than an electric resistance of the first region, wherein the second region includes a part configured by a plurality of cellular sections surrounded by a plurality of fine cracks, and characterised in that in the part, each fine crack has a width of 1 nm to 50 nm, and each cellular section has a largest measure within the range of 1 μ m to 7 μ m.
A method for managing received data by a client device, the method comprising: receiving a message including: information about a plurality of operation modes that are currently available or are supported for the client device for removal of data from a buffer at the client device, wherein the information includes a data removal type and a maximum decapsulation buffer size for each of the plurality of operation modes, the data removal type indicating a data removal mode of corresponding operation mode among a plurality of data removal modes; identifying an operation mode for removal of the data from the buffer with a greatest maximum decapsulation buffer size among the plurality of operation modes; and removing the data from the buffer based on the identified operation mode, wherein the plurality of data removal modes comprise a first mode where the client device removes complete Moving Picture Experts Group, MPEG, media transport, MMT, processing units, MPUs, a second mode where the client device removes complete movie fragments, and a third mode where the client device removes complete MMT fragmentation units, MFUs. receiving a message including: information about a plurality of operation modes that are currently available or are supported for the client device for removal of data from a buffer at the client device, wherein the information includes a data removal type and a maximum decapsulation buffer size for each of the plurality of operation modes, the data removal type indicating a data removal mode of corresponding operation mode among a plurality of data removal modes; information about a plurality of operation modes that are currently available or are supported for the client device for removal of data from a buffer at the client device, wherein the information includes a data removal type and a maximum decapsulation buffer size for each of the plurality of operation modes, the data removal type indicating a data removal mode of corresponding operation mode among a plurality of data removal modes; identifying an operation mode for removal of the data from the buffer with a greatest maximum decapsulation buffer size among the plurality of operation modes; and removing the data from the buffer based on the identified operation mode, wherein the plurality of data removal modes comprise a first mode where the client device removes complete Moving Picture Experts Group, MPEG, media transport, MMT, processing units, MPUs, a second mode where the client device removes complete movie fragments, and a third mode where the client device removes complete MMT fragmentation units, MFUs.
A multiplex lateral flow assay device for simultaneous detection of a presence of at least a first analyte of interest and a second, different, analyte of interest in a single liquid test sample, comprising: a) a test sample receiving region; b) a capture membrane comprising a first assay test path and a second, adjacent non-overlapping, assay test path, the first assay test path comprising a first labeled detection reagent specific for the first analyte of interest, and a first test line comprising an immobilized first capture reagent specific for the first analyte of interest, and the second assay test path comprising a second, different, labeled detection reagent specific for the second analyte of interest, and a second test line comprising an immobilized second, different, capture reagent specific for the second analyte of interest; characterized in that at least one of (i) a reservoir region is positioned downstream of the capture membrane and comprises an absorbent pad and an intermediate pad located between the capture membrane and the absorbent pad, wherein the intermediate pad is water-absorbent and is more hydrophilic than the absorbent pad; or (ii) the test sample receiving region comprises a test sample application pad, a buffer pad, and a hydrophobic pad, each of the application pad, buffer pad and hydrophobic pad being formed from porous, water-absorbing material, the hydrophobic pad located adjacent to and upstream from the application pad, the buffer pad located adjacent to and upstream from the hydrophobic pad, wherein the hydrophobic pad is more hydrophobic than either of the buffer pad or the application pad. a) a test sample receiving region; b) a capture membrane comprising a first assay test path and a second, adjacent non-overlapping, assay test path, the first assay test path comprising a first labeled detection reagent specific for the first analyte of interest, and a first test line comprising an immobilized first capture reagent specific for the first analyte of interest, and the second assay test path comprising a second, different, labeled detection reagent specific for the second analyte of interest, and a second test line comprising an immobilized second, different, capture reagent specific for the second analyte of interest;
A tyre comprising a concave mark provided on a surface of a sidewall portion and recessed from the surface, wherein a bottom surface of the concave mark is divided into a shadow area (Ya), which is an area along a shadow wall portion that is in the shadow of a wall portion of the concave mark when light is shed to the concave mark from a direction, and a main area (Yb) other than the shadow area (Ya), and the shadow area (Ya) has a plurality of minute protrusions, characterized in that the minute protrusions are columnar protrusions and the columnar protrusions have truncated conical shapes having smaller diameters on a side of upper ends thereof. a bottom surface of the concave mark is divided into a shadow area (Ya), which is an area along a shadow wall portion that is in the shadow of a wall portion of the concave mark when light is shed to the concave mark from a direction, and a main area (Yb) other than the shadow area (Ya), and the shadow area (Ya) has a plurality of minute protrusions, characterized in that the minute protrusions are columnar protrusions and the columnar protrusions have truncated conical shapes having smaller diameters on a side of upper ends thereof.