mhurhangee/ep-ind-claims huggingface dataset:
An oral composition comprising: (i) a carrier; (ii) from 0.02 to 2 wt. % of a cationic antimicrobial compound; and (iii) from 0.1 to 4.5 wt. % of a silica and/or silicate material characterized by: an average particle size in a range from 0.1 to 20 μ; a CTAB surface area in a range from 145 to 550 m 2 /g; and an absorptive capacity of the cationic antimicrobial compound in a range from 200 to 400 mg of the cationic antimicrobial compound per gram of the silica and/or silicate material. (i) a carrier; (ii) from 0.02 to 2 wt. % of a cationic antimicrobial compound; and (iii) from 0.1 to 4.5 wt. % of a silica and/or silicate material characterized by: an average particle size in a range from 0.1 to 20 μ; a CTAB surface area in a range from 145 to 550 m 2 /g; and an absorptive capacity of the cationic antimicrobial compound in a range from 200 to 400 mg of the cationic antimicrobial compound per gram of the silica and/or silicate material. an average particle size in a range from 0.1 to 20 μ; a CTAB surface area in a range from 145 to 550 m 2 /g; and an absorptive capacity of the cationic antimicrobial compound in a range from 200 to 400 mg of the cationic antimicrobial compound per gram of the silica and/or silicate material.
A semiconductor die with clock control, the semiconductor die comprising: a plurality of pins (5,6) comprising a supply pin configured, in use, to receive a supply voltage from a power supply, and a first clock interface pin; and a clock interface circuit configured to output a clock signal, the clock interface circuit coupled to the supply pin and the first clock interface pin, wherein the clock interface circuit comprises: an oscillator configured to generate an oscillator signal; and a first comparator configured to control operation of the clock interface circuit in a selected clock control mode chosen from two or more clock control modes based on comparing an electrical characteristic of the first clock interface pin to a comparison threshold, the clock interface circuit being configured to generate the comparison threshold based on a voltage level of the supply voltage, VDD, wherein the two or more clock control modes includes a first clock control mode in which the clock interface circuit generates the clock signal based on an input clock signal received on the clock interface pin, and a second clock control mode in which the clock interface circuit generates the clock signal based on the oscillator signal. a plurality of pins (5,6) comprising a supply pin configured, in use, to receive a supply voltage from a power supply, and a first clock interface pin; and a clock interface circuit configured to output a clock signal, the clock interface circuit coupled to the supply pin and the first clock interface pin, wherein the clock interface circuit comprises: an oscillator configured to generate an oscillator signal; and a first comparator configured to control operation of the clock interface circuit in a selected clock control mode chosen from two or more clock control modes based on comparing an electrical characteristic of the first clock interface pin to a comparison threshold, the clock interface circuit being configured to generate the comparison threshold based on a voltage level of the supply voltage, VDD, wherein the two or more clock control modes includes a first clock control mode in which the clock interface circuit generates the clock signal based on an input clock signal received on the clock interface pin, and a second clock control mode in which the clock interface circuit generates the clock signal based on the oscillator signal. an oscillator configured to generate an oscillator signal; and a first comparator configured to control operation of the clock interface circuit in a selected clock control mode chosen from two or more clock control modes based on comparing an electrical characteristic of the first clock interface pin to a comparison threshold, the clock interface circuit being configured to generate the comparison threshold based on a voltage level of the supply voltage, VDD, wherein the two or more clock control modes includes a first clock control mode in which the clock interface circuit generates the clock signal based on an input clock signal received on the clock interface pin, and a second clock control mode in which the clock interface circuit generates the clock signal based on the oscillator signal.
An integrated optical circuit (100, 300), comprising: a first substrate (102, 302) formed of a first material; a first waveguide formed of a second material and positioned on the first substrate (102, 302), wherein the first waveguide comprises an input section and multiple branches that form a Y junction, wherein the first waveguide 106 is configured to polarize light beams that propagate through the first waveguide; a second substrate (104, 304) formed of a third material, wherein the second substrate (104, 304) is coupled to or positioned on the first substrate (102, 302); a plurality of first straight waveguides (112, 312) formed in the second substrate (104, 304), wherein each of the plurality of first straight waveguides (112, 312) is optically coupled to a respective branch of the plurality of branches of the first waveguide; and a plurality of electrodes (114, 314) positioned proximate to the plurality of first straight waveguides (112, 312), wherein the plurality of electrodes (114, 314) is configured to modulate the phase of light beams that propagate through the plurality of first straight waveguides (112, 312). a first substrate (102, 302) formed of a first material; a first waveguide formed of a second material and positioned on the first substrate (102, 302), wherein the first waveguide comprises an input section and multiple branches that form a Y junction, wherein the first waveguide 106 is configured to polarize light beams that propagate through the first waveguide; a second substrate (104, 304) formed of a third material, wherein the second substrate (104, 304) is coupled to or positioned on the first substrate (102, 302); a plurality of first straight waveguides (112, 312) formed in the second substrate (104, 304), wherein each of the plurality of first straight waveguides (112, 312) is optically coupled to a respective branch of the plurality of branches of the first waveguide; and a plurality of electrodes (114, 314) positioned proximate to the plurality of first straight waveguides (112, 312), wherein the plurality of electrodes (114, 314) is configured to modulate the phase of light beams that propagate through the plurality of first straight waveguides (112, 312).
An antibody, or a functional fragment or derivative thereof, capable of binding to cMet, said antibody being characterized in that it is selected from the group consisting of: a) an antibody, or a functional fragment or derivative thereof, comprising: - a heavy chain comprising the following three CDRs as defined according to IMGT, respectively CDR-H1 having the sequence SEQ ID No. 7, CDR-H2 having the sequence SEQ ID No. 2 and CDR-H3 having the sequence SEQ ID No. 8, and - a light chain comprising the following three CDRs as defined according to IMGT, respectively CDR-L1 having the sequence SEQ ID No. 4, CDR-L2 having the sequence SEQ ID No. 5 and CDR-L3 having the sequence SEQ ID No.6; and b) an antibody, or a functional fragment or derivative thereof, comprising: - a heavy chain comprising the following three CDRs as defined according to IMGT, respectively CDR-H1 having the sequence SEQ ID No. 29, CDR-H2 having the sequence SEQ ID No. 30 and CDR-H3 having the sequence SEQ ID No. 31; and - a light chain comprising the following three CDRs as defined according to IMGT, respectively CDR-L1 having the sequence SEQ ID No. 32, CDR-L2 having the sequence SEQ ID No. 33 and CDR-L3 having the sequence SEQ ID No. 34. a) an antibody, or a functional fragment or derivative thereof, comprising: - a heavy chain comprising the following three CDRs as defined according to IMGT, respectively CDR-H1 having the sequence SEQ ID No. 7, CDR-H2 having the sequence SEQ ID No. 2 and CDR-H3 having the sequence SEQ ID No. 8, and - a light chain comprising the following three CDRs as defined according to IMGT, respectively CDR-L1 having the sequence SEQ ID No. 4, CDR-L2 having the sequence SEQ ID No. 5 and CDR-L3 having the sequence SEQ ID No.6; and - a heavy chain comprising the following three CDRs as defined according to IMGT, respectively CDR-H1 having the sequence SEQ ID No. 7, CDR-H2 having the sequence SEQ ID No. 2 and CDR-H3 having the sequence SEQ ID No. 8, and - a light chain comprising the following three CDRs as defined according to IMGT, respectively CDR-L1 having the sequence SEQ ID No. 4, CDR-L2 having the sequence SEQ ID No. 5 and CDR-L3 having the sequence SEQ ID No.6; and b) an antibody, or a functional fragment or derivative thereof, comprising: - a heavy chain comprising the following three CDRs as defined according to IMGT, respectively CDR-H1 having the sequence SEQ ID No. 29, CDR-H2 having the sequence SEQ ID No. 30 and CDR-H3 having the sequence SEQ ID No. 31; and - a light chain comprising the following three CDRs as defined according to IMGT, respectively CDR-L1 having the sequence SEQ ID No. 32, CDR-L2 having the sequence SEQ ID No. 33 and CDR-L3 having the sequence SEQ ID No. 34. - a heavy chain comprising the following three CDRs as defined according to IMGT, respectively CDR-H1 having the sequence SEQ ID No. 29, CDR-H2 having the sequence SEQ ID No. 30 and CDR-H3 having the sequence SEQ ID No. 31; and - a light chain comprising the following three CDRs as defined according to IMGT, respectively CDR-L1 having the sequence SEQ ID No. 32, CDR-L2 having the sequence SEQ ID No. 33 and CDR-L3 having the sequence SEQ ID No. 34.
A wearable motion detection device configured for detecting body-to-ground proximity, the device comprising: - a capacitance detection unit arranged to detect body-to-ground capacitance, the capacitance detection unit comprising: - a first electrode arranged to contact a body portion of a monitored user, when the device is worn, - a second electrode that is arranged separately from but operatively connected with the first electrode, - a shield electrode that is arranged to shield the second electrode from the first electrode, - a control unit arranged to detect, under consideration of a body-to-ground capacitance signal provided by the capacitance detection unit, positional changes of the user. - a capacitance detection unit arranged to detect body-to-ground capacitance, the capacitance detection unit comprising: - a first electrode arranged to contact a body portion of a monitored user, when the device is worn, - a second electrode that is arranged separately from but operatively connected with the first electrode, - a shield electrode that is arranged to shield the second electrode from the first electrode, - a first electrode arranged to contact a body portion of a monitored user, when the device is worn, - a second electrode that is arranged separately from but operatively connected with the first electrode, - a shield electrode that is arranged to shield the second electrode from the first electrode, - a control unit arranged to detect, under consideration of a body-to-ground capacitance signal provided by the capacitance detection unit, positional changes of the user.
Uni-compartmental knee joint prosthesis comprising: a tibial component having a fixation portion adapted to be fixed to an upper end of a prepared tibia in a patient, and a bearing portion presenting an articulation surface formed from a ceramic material, wherein the bearing portion is formed as an integral element of a ceramic material or of a composite structure in the form of a metallic substrate having a ceramic portion thereon, wherein the bearing portion is adapted for translational and rotational movement relative to the fixation portion; and a femoral component adapted to be fixed to a lower end of a prepared femur in a patient, the femoral component comprising a body portion presenting an articulation surface formed from a ceramic material for engagement with the articulation surface of the tibial component; wherein the articulation surfaces (32, 56) of the tibial and femoral components (2, 3) are configured for essentially congruent engagement over a full range of movement of the prosthesis. a tibial component having a fixation portion adapted to be fixed to an upper end of a prepared tibia in a patient, and a bearing portion presenting an articulation surface formed from a ceramic material, wherein the bearing portion is formed as an integral element of a ceramic material or of a composite structure in the form of a metallic substrate having a ceramic portion thereon, wherein the bearing portion is adapted for translational and rotational movement relative to the fixation portion; and a femoral component adapted to be fixed to a lower end of a prepared femur in a patient, the femoral component comprising a body portion presenting an articulation surface formed from a ceramic material for engagement with the articulation surface of the tibial component; wherein the articulation surfaces (32, 56) of the tibial and femoral components (2, 3) are configured for essentially congruent engagement over a full range of movement of the prosthesis.
A seed guide for directing seed into a seed tube or seed conveyor assembly (900; 900A; 900B), the seed guide comprising: a relief portion; and an introduction portion; the relief portion and the introduction portion each defining seed guide surfaces; characterized in that the introduction portion comprises at least one protrusion (1990-1, 1990-2) having first and second ends (1991-1, 1991-2, 1992-1, 1992-2), the protrusion is angled from a first side (1993-1, 1993-2) of the introduction portion toward the center of the introduction portion with the second end (1992-1, 1992-2) of the protrusion proximate the center of the introduction portion being further from the relief portion than the first end (1991-1, 1991-2). a relief portion; and an introduction portion; the relief portion and the introduction portion each defining seed guide surfaces; characterized in that the introduction portion comprises at least one protrusion (1990-1, 1990-2) having first and second ends (1991-1, 1991-2, 1992-1, 1992-2), the protrusion is angled from a first side (1993-1, 1993-2) of the introduction portion toward the center of the introduction portion with the second end (1992-1, 1992-2) of the protrusion proximate the center of the introduction portion being further from the relief portion than the first end (1991-1, 1991-2).
An image processing method in a diagnosis assisting device that diagnoses lesions from a picked-up image, wherein: a reference image corresponding to a known first picked-up image being a dermoscopy image relating to lesions is registered in a database; and the method comprises, when a diagnosis assistance is performed by comparing a query image corresponding to an unknown second picked-up image being a dermoscopy image relating to lesions with the reference image in the database: creating the query image; characterized by determining a resizing increase multiplication factor for the unknown second picked-up image using a short side actual length of the unknown second picked-up image; performing an extrapolation process on the unknown second picked-up image to obtain a second extrapolation image; and creating the query image at least by performing a geometric transformation process on the second extrapolation image, the geometric transformation process involving rotation, inversion and resizing the second extrapolation image based on the resizing increase multiplication factor for the unknown second picked-up image. a reference image corresponding to a known first picked-up image being a dermoscopy image relating to lesions is registered in a database; and the method comprises, when a diagnosis assistance is performed by comparing a query image corresponding to an unknown second picked-up image being a dermoscopy image relating to lesions with the reference image in the database: creating the query image; characterized by determining a resizing increase multiplication factor for the unknown second picked-up image using a short side actual length of the unknown second picked-up image; performing an extrapolation process on the unknown second picked-up image to obtain a second extrapolation image; and creating the query image at least by performing a geometric transformation process on the second extrapolation image, the geometric transformation process involving rotation, inversion and resizing the second extrapolation image based on the resizing increase multiplication factor for the unknown second picked-up image. creating the query image; characterized by determining a resizing increase multiplication factor for the unknown second picked-up image using a short side actual length of the unknown second picked-up image; performing an extrapolation process on the unknown second picked-up image to obtain a second extrapolation image; and creating the query image at least by performing a geometric transformation process on the second extrapolation image, the geometric transformation process involving rotation, inversion and resizing the second extrapolation image based on the resizing increase multiplication factor for the unknown second picked-up image.
A method of monitoring a wake-up signal, WUS, in a wireless communication system, the method performed by a wireless device and comprising: monitoring the WUS based on a timing of a paging occasion, PO, wherein the WUS includes information expressed in a sequence; receiving the WUS; upon receiving the WUS, based on the sequence corresponding to a group of wireless devices to which the wireless device belongs, monitoring a physical downlink control channel, PDCCH, related to a reception of a paging message; and performing the reception of the paging message, wherein the WUS is mapped to resource elements, REs, and wherein, based on one or more of the REs for the WUS being used for cell-specific reference signals, CRSs, or narrowband reference signals, NRSs, the one or more of the REs are punctured. monitoring the WUS based on a timing of a paging occasion, PO, wherein the WUS includes information expressed in a sequence; receiving the WUS; upon receiving the WUS, based on the sequence corresponding to a group of wireless devices to which the wireless device belongs, monitoring a physical downlink control channel, PDCCH, related to a reception of a paging message; and performing the reception of the paging message, wherein the WUS is mapped to resource elements, REs, and wherein, based on one or more of the REs for the WUS being used for cell-specific reference signals, CRSs, or narrowband reference signals, NRSs, the one or more of the REs are punctured.
A thermoelectric conversion material comprising: a crystal grain of Si; and a crystal grain of Yb-Si silicide, wherein an average crystal grain size of each of Si and Yb-Si silicide is greater than 0 and 100 nm or smaller. a crystal grain of Si; and a crystal grain of Yb-Si silicide, wherein an average crystal grain size of each of Si and Yb-Si silicide is greater than 0 and 100 nm or smaller.
A contact thermography kit comprising a plurality (P_term) of thermochromic plates (Li; i=1..n) arranged to be placed in contact with a user, wherein each plate (Li) is adapted to assume a graphic pattern (Pi) as a function of a detected temperature range (ΔTi; i = 1..n), so as to generate a corresponding thermographic image (I_term_Pi; i=1..n), wherein said plurality (P_term) of plates (Li) is adapted to measure temperatures comprised between 26.5° and 34.6° centigrade, characterized in that the plate configured to detect the lowest temperatures is configured to detect temperatures comprised within the range from 26.5°C to 29.6°C.
A light generating system comprising m light generating devices and a beam combiner body, wherein: - the m light generating devices are configured to generate device light, wherein the light generating devices comprise one or more light sources selected from the group of lasers and superluminescent diodes, wherein m≥2; - the beam combiner body comprises a first face, wherein the first face comprises n radially arranged grooves radially extending from a central cavity, wherein n≥2, wherein the n radially arranged grooves have groove lengths; - at least one of the radially arranged grooves comprises a first body, wherein the first body comprises a luminescent body, wherein the luminescent body comprises a luminescent material configured to convert at least part of the device light into luminescent material light; wherein the first body has a first body height as determined in parallel to the groove length of the at least one of the radially arranged grooves, the first body height being smaller than the groove length of the at least one of the radially arranged grooves; - the m light generating devices and the beam combiner body are configured such that at least part of the device light of the m light generating devices propagates during operation of the m light generating devices through the radially arranged grooves in a direction of the central cavity, and at least one of the m light generating devices is configured to irradiate the first body. - the m light generating devices are configured to generate device light, wherein the light generating devices comprise one or more light sources selected from the group of lasers and superluminescent diodes, wherein m≥2; - the beam combiner body comprises a first face, wherein the first face comprises n radially arranged grooves radially extending from a central cavity, wherein n≥2, wherein the n radially arranged grooves have groove lengths; - at least one of the radially arranged grooves comprises a first body, wherein the first body comprises a luminescent body, wherein the luminescent body comprises a luminescent material configured to convert at least part of the device light into luminescent material light; wherein the first body has a first body height as determined in parallel to the groove length of the at least one of the radially arranged grooves, the first body height being smaller than the groove length of the at least one of the radially arranged grooves; - the m light generating devices and the beam combiner body are configured such that at least part of the device light of the m light generating devices propagates during operation of the m light generating devices through the radially arranged grooves in a direction of the central cavity, and at least one of the m light generating devices is configured to irradiate the first body.
A method of supporting streaming of data in a communication network, the method comprising: - a streaming client receiving information on a type of node of a node (110, 120, 130) for assisting streaming of data; and - depending on the information on the type of node, the streaming client selecting the node (110, 120, 130) to assist in streaming of data to the streaming client. - a streaming client receiving information on a type of node of a node (110, 120, 130) for assisting streaming of data; and - depending on the information on the type of node, the streaming client selecting the node (110, 120, 130) to assist in streaming of data to the streaming client.