mhurhangee/patent-ind-claim-en huggingface dataset:
A signal light comprising a light source positioned between a translucent screen for diffusing the light coming from said source and a rear face forming a reflector , characterized in that the translucent screen has overall an hourglass shape extending over front faces flaring out in an opposite manner and being inscribed in envelopes (E1, E2) which are at least partially conical and resting on a biconcave contour (C; 2R, 2L) defining, on either side of a main axis (ZZ') of the hourglass , two opposite concave sides separated by a minimum distance (Dm) by their apex (S1, S2) and delimiting four pointed overhangs (21 to 24), in connection with two other opposite sides connecting the two concave sides and in that the envelopes (E1, E2) of the front faces have a conicity determined so that the light diffused by said screen is visible according to an angular tilt opening (F1, F2) of at least ±15° with respect to a through plane (PT) perpendicular to the main axis (ZZ') and according to a scanning angular aperture () at least equal to 125° in the through plane (PT), wherein the translucent screen has light-scattering lamellae arranged substantially parallel to the through plane (PT) from a supporting back face of said screen , each lamella comprising a front face fitting into one of the at least partially conical envelopes (E1, E2), and in which each diffusion lamella has a polyhedral shape comprising two substantially parallel and polygonal main faces connected by a front face and comprising at least two juxtaposed flat faces .
A gene marker set for use in the prediction of the risk of colorectal cancer (CRC) in a subject comprising: a) 20 genes with the sequences as set forth in SEQ ID NOs: 1 to 20; b) 4 genes with the sequences as set forth in SEQ ID NOs: 1, 9, 13 and 16; c) 2 genes with the sequences as set forth in SEQ ID NOs: 13 and 16; or d) the gene with the sequence as set forth in SEQ ID NOs: 13, or rpoB gene from P. micra encoding RNA polymerase subunit β. a) 20 genes with the sequences as set forth in SEQ ID NOs: 1 to 20; b) 4 genes with the sequences as set forth in SEQ ID NOs: 1, 9, 13 and 16; c) 2 genes with the sequences as set forth in SEQ ID NOs: 13 and 16; or d) the gene with the sequence as set forth in SEQ ID NOs: 13, or rpoB gene from P. micra encoding RNA polymerase subunit β.
A crystalline form of 4-cyano-N-[2-(4,4-dimethylcyclohex-1-en-1-yl)-6-(2,2,6,6-tetramethyltetrahydro-2H-pyran-4-yl)pyridine-3-yl]-1H-imidazole-2-carboxamide (Compound A) wherein the crystalline form is selected from the group consisting of Compound A, Form I, producing an X-ray powder diffraction pattern comprising peaks at 6.1, 9.2, 9.4, 12.7, 15.1, 15.7, and 18.4 degrees two theta ± 0.2 degrees two theta.
An air-conditioning apparatus capable of cooling and heating mixed operation and configured such that at least one heat-source-side unit including a compressor , a four-way switching valve , and an outdoor heat exchanger is connected to a plurality of load-side units each including an expansion device , an indoor heat exchanger and a temperature sensor for detecting an evaporation temperature, the plurality of load-side units being connected to the heat-source-side unit in parallel, the air-conditioning apparatus comprising: an opening and closing valve mounted in the heat-source-side unit to adjust a flow of refrigerant from the load-side units to the outdoor heat exchanger ; a heat-source-side expansion device mounted in the heat-source-side unit and provided in parallel with the opening and closing valve ; and a controller configured to control at least opening and closing of the opening and closing valve and an opening degree of the heat-source-side expansion device , wherein the controller is configured to control the opening degree of the heat-source-side expansion device according to an evaporating temperature of the load-side unit requesting cooling so as to adjust the evaporating temperature to be within a predetermined range, characterized in that the controller is configured to in a heating main operation mode in which a heating load is dominant in the cooling and heating mixed operation with the plurality of load-side units and under a condition where an evaporation temperature of the load-side unit that is performing a cooling operation decreases to be lower than or equal to a predetermined temperature, close the opening and closing valve . an opening and closing valve mounted in the heat-source-side unit to adjust a flow of refrigerant from the load-side units to the outdoor heat exchanger ; a heat-source-side expansion device mounted in the heat-source-side unit and provided in parallel with the opening and closing valve ; and a controller configured to control at least opening and closing of the opening and closing valve and an opening degree of the heat-source-side expansion device , wherein the controller is configured to control the opening degree of the heat-source-side expansion device according to an evaporating temperature of the load-side unit requesting cooling so as to adjust the evaporating temperature to be within a predetermined range, characterized in that the controller is configured to in a heating main operation mode in which a heating load is dominant in the cooling and heating mixed operation with the plurality of load-side units and under a condition where an evaporation temperature of the load-side unit that is performing a cooling operation decreases to be lower than or equal to a predetermined temperature, close the opening and closing valve .
A captive track motion system for a convertible roof, characterized by comprising: a main frame , the main frame being a roll bar, at least one track connected to said main frame , an intermediate side rail connected to said at least one track such that said intermediate side rail is movable relative to said main frame along said at least one track ; and a first rear side rail pivotally connected to said main frame , and said first rear side rail pivotally connected to said intermediate side rail ; wherein the movement of said intermediate side rail is controlled by the shape of said at least one track as said first rear side rail and said intermediate side rail are moved between a deployed position and a stowed position. a main frame , the main frame being a roll bar, at least one track connected to said main frame , an intermediate side rail connected to said at least one track such that said intermediate side rail is movable relative to said main frame along said at least one track ; and a first rear side rail pivotally connected to said main frame , and said first rear side rail pivotally connected to said intermediate side rail ; wherein the movement of said intermediate side rail is controlled by the shape of said at least one track as said first rear side rail and said intermediate side rail are moved between a deployed position and a stowed position.
A core assembly for a wireless power transmitting device , comprising: a main coil disposed at a first level being closer to a charging surface than a second level; an auxiliary coil disposed at the second level different from and lower than the first level, and including a first sub coil and a second sub coil , which respectively have a portion overlapped with the main coil and respectively have a size smaller than the main coil ; and a core of a magnetic substance configured to accommodate the main coil and the auxiliary coil, characterized in that an inner surface of a side wall accommodates an outer periphery of a primary coil , wherein the primary coil comprises the main coil and the first sub coil and the second sub coil , and wherein the main coil contacts both the first sub coil and the second sub coil , and comprising: a first support and a second support formed on the core , wherein the first support and the second support are formed to be inserted into hollow portions of the first sub coil and the second sub coil respectively, wherein a sum of the widths of the first sub coil and the second sub coil in a first direction (W 1 ) is larger than the width of the main coil in the first direction (W 1 ), and wherein a center (C) of the main coil , a center of the first sub coil and a center of the second sub coil are located along an axis (V). a main coil disposed at a first level being closer to a charging surface than a second level; an auxiliary coil disposed at the second level different from and lower than the first level, and including a first sub coil and a second sub coil , which respectively have a portion overlapped with the main coil and respectively have a size smaller than the main coil ; and a core of a magnetic substance configured to accommodate the main coil and the auxiliary coil, characterized in that an inner surface of a side wall accommodates an outer periphery of a primary coil , wherein the primary coil comprises the main coil and the first sub coil and the second sub coil , and wherein the main coil contacts both the first sub coil and the second sub coil , and comprising: a first support and a second support formed on the core , wherein the first support and the second support are formed to be inserted into hollow portions of the first sub coil and the second sub coil respectively, wherein a sum of the widths of the first sub coil and the second sub coil in a first direction (W 1 ) is larger than the width of the main coil in the first direction (W 1 ), and wherein a center (C) of the main coil , a center of the first sub coil and a center of the second sub coil are located along an axis (V).
A method for controlling audio of an HDMI audio system, the HDMI audio system comprising a screen device , the method comprising: causing audio data to be presented by an HDMI audio system at a current system volume level of the HDMI audio system; receiving a requested volume level from a second screen device over a wireless network ; and controlling a system volume level of the HDMI audio system by: (a) determining the current system volume level of the HDMI audio system; (b) determining a change in volume based on a comparison between the requested volume level and the current system volume level; (c) determining a direction in which to cause the system volume level to change; (d) sending a volume control message to the HDMI audio system using a Consumer Electronic Control, CEC, bus connected to the HDMI audio system, wherein the volume control message indicates whether to increase or decrease the system volume level based on the determined direction in which to cause the system volume to change; and (e) repeating (a)-(d) until the current system volume level meets a predetermined condition. causing audio data to be presented by an HDMI audio system at a current system volume level of the HDMI audio system; receiving a requested volume level from a second screen device over a wireless network ; and controlling a system volume level of the HDMI audio system by: (a) determining the current system volume level of the HDMI audio system; (b) determining a change in volume based on a comparison between the requested volume level and the current system volume level; (c) determining a direction in which to cause the system volume level to change; (d) sending a volume control message to the HDMI audio system using a Consumer Electronic Control, CEC, bus connected to the HDMI audio system, wherein the volume control message indicates whether to increase or decrease the system volume level based on the determined direction in which to cause the system volume to change; and (e) repeating (a)-(d) until the current system volume level meets a predetermined condition. (a) determining the current system volume level of the HDMI audio system; (b) determining a change in volume based on a comparison between the requested volume level and the current system volume level; (c) determining a direction in which to cause the system volume level to change; (d) sending a volume control message to the HDMI audio system using a Consumer Electronic Control, CEC, bus connected to the HDMI audio system, wherein the volume control message indicates whether to increase or decrease the system volume level based on the determined direction in which to cause the system volume to change; and (e) repeating (a)-(d) until the current system volume level meets a predetermined condition.
A pharmaceutical dry powder composition consisting of a micronized powder of a thyroid hormone with an average particle size between 1 and 10 micrometer, diluted in solid carrier particles of a size in the range of 20 to 400 micrometer suitable for inhalation, wherein the thyroid hormone drug is one of levothyroxine or liothyronine or their salts, comprising as a single carrier a non-reducing sugar or sugar alcohol and absent of any other excipient, antioxidant or preservative.
A wind turbine blade comprising: a first blade shell part and a second blade shell part , wherein the first blade shell part is a blade shell part made of a composite structure comprising a reinforcement material embedded in a polymer matrix, the blade shell part extending along a longitudinal axis from a tip end to a root end, and wherein the first blade shell part comprises: a blade shell body with a leading edge and a trailing edge, and a first glue flange extending from the leading edge and having a first glue flange edge and a first glue surface with a first width, wherein the first glue surface is provided with a plurality of first spacer elements such that the first spacer elements are arranged on the first glue surface, wherein the second blade shell part comprising a blade shell body with a leading edge and a trailing edge and having a second glue surface on an inner surface of the second blade shell part, and wherein at least one of the first spacer elements contact the second glue surface and glue is arranged between the first glue surface and the second glue surface , characterised in that the first spacer elements are arranged with a longitudinal distance between neighbouring first spacer elements . a first blade shell part and a second blade shell part , wherein the first blade shell part is a blade shell part made of a composite structure comprising a reinforcement material embedded in a polymer matrix, the blade shell part extending along a longitudinal axis from a tip end to a root end, and wherein the first blade shell part comprises: a blade shell body with a leading edge and a trailing edge, and a first glue flange extending from the leading edge and having a first glue flange edge and a first glue surface with a first width, wherein the first glue surface is provided with a plurality of first spacer elements such that the first spacer elements are arranged on the first glue surface, a blade shell body with a leading edge and a trailing edge, and a first glue flange extending from the leading edge and having a first glue flange edge and a first glue surface with a first width, wherein the first glue surface is provided with a plurality of first spacer elements such that the first spacer elements are arranged on the first glue surface, wherein the second blade shell part comprising a blade shell body with a leading edge and a trailing edge and having a second glue surface on an inner surface of the second blade shell part, and wherein at least one of the first spacer elements contact the second glue surface and glue is arranged between the first glue surface and the second glue surface , characterised in that the first spacer elements are arranged with a longitudinal distance between neighbouring first spacer elements .
A method of changing a profile that is information required for using a network service provided by a communication service provider by using an identification module in an electronic device , the method performed by the electronic device comprising: searching for networks and identifying a network, which is selected by a user, among the searched networks; determining whether a profile, which corresponds to the identified network, is included in the identification module in accordance with the identified network; downloading , when the profile is not included in the identification module, the profile corresponding to the identified network and enabling the downloaded profile; enabling , when the profile is included in the identification module, the profile; and making a connection to the network based on the enabled profile, wherein the identified network provides a Wi-Fi network service or an embedded multimedia broadcast multicast service, eMBMS, and wherein the identification module comprises an embedded universal integrated circuit card, eUICC. searching for networks and identifying a network, which is selected by a user, among the searched networks; determining whether a profile, which corresponds to the identified network, is included in the identification module in accordance with the identified network; downloading , when the profile is not included in the identification module, the profile corresponding to the identified network and enabling the downloaded profile; enabling , when the profile is included in the identification module, the profile; and making a connection to the network based on the enabled profile, wherein the identified network provides a Wi-Fi network service or an embedded multimedia broadcast multicast service, eMBMS, and wherein the identification module comprises an embedded universal integrated circuit card, eUICC.
A building, in particular configured as a hospital, comprising a skeletal structure with a plurality of floors; wherein individual modules including one or more rooms are inserted in said skeletal structure; wherein the modules are inserted on a guide rail which is mounted to the skeleton structure; characterised in that each module has a groove in its underside, in which the guide rail engages; and wherein at least one height adjustment element is provided on the underside of the module, which bears upon the skeletal structure in the inserted state of the module,
A device for restoring a pipeline by means of a fibre lining hose impregnated with a reactive resin which cures under the influence of light-emitting devices, wherein the device has a head part made of a transparent, temperature-resistant material, the whole device or at least its head part being filled with a transparent, flame-retardant insulation liquid , wherein end caps on both end sides hermetically seal the device towards the outside, wherein the device accommodates an insert, on the insulating material carrier of which high-power light-emitting diodes are arranged, and wherein the insert is rotationally symmetrical along the longitudinal axis of the device and can be motor-driven via a shaft or a hydraulic line . wherein end caps on both end sides hermetically seal the device towards the outside, wherein the device accommodates an insert, on the insulating material carrier of which high-power light-emitting diodes are arranged, and wherein the insert is rotationally symmetrical along the longitudinal axis of the device and can be motor-driven via a shaft or a hydraulic line .
A method comprising: receiving, by a voice enabled device , a voice input; determining, based on at least a portion of the voice input, that the voice input requires authentication; determining, based on determining that the voice input requires authentication, one or more voice characteristics associated with the voice input; determining that the one or more voice characteristics correspond to a profile; determining, based on the profile, a network device ; sending, by the voice enabled device, a signal to the network device , wherein the signal comprises an identifier associated with the voice enabled device; receiving, based on sending the signal, an authentication message; determining, based on the authentication message and the voice input, an operational command; and executing the operational command. receiving, by a voice enabled device , a voice input; determining, based on at least a portion of the voice input, that the voice input requires authentication; determining, based on determining that the voice input requires authentication, one or more voice characteristics associated with the voice input; determining that the one or more voice characteristics correspond to a profile; determining, based on the profile, a network device ; sending, by the voice enabled device, a signal to the network device , wherein the signal comprises an identifier associated with the voice enabled device; receiving, based on sending the signal, an authentication message; determining, based on the authentication message and the voice input, an operational command; and executing the operational command.
A method for monitoring sound quality in a tuned theatre sound system that is positioned in a theatre , wherein the theatre comprises seat locations, said method comprising: capturing, by a microphone positioned at a location within the audio dispersion path of a loudspeaker of the tuned theatre sound system, other than the seat locations so as to avoid interfering with a patron's view of the presentation in the theatre , a reference signature response of the loudspeaker to a test signal, the reference signature response having localized acoustical effects; whereby the reference signature response indicates what the profile should be at the location of the microphone for the loudspeaker of the tuned theatre sound system; storing the reference signature response; subsequent to capturing the reference signature response, capturing, by the microphone positioned at said location within the audio dispersion path of the loudspeaker other than the seat locations, a subsequent response of the loudspeaker to a subsequent test signal; and providing the reference signature response and the subsequent response for comparing the subsequent response to predetermined limits determined as offsets to the reference signature response. capturing, by a microphone positioned at a location within the audio dispersion path of a loudspeaker of the tuned theatre sound system, other than the seat locations so as to avoid interfering with a patron's view of the presentation in the theatre , a reference signature response of the loudspeaker to a test signal, the reference signature response having localized acoustical effects; whereby the reference signature response indicates what the profile should be at the location of the microphone for the loudspeaker of the tuned theatre sound system; storing the reference signature response; subsequent to capturing the reference signature response, capturing, by the microphone positioned at said location within the audio dispersion path of the loudspeaker other than the seat locations, a subsequent response of the loudspeaker to a subsequent test signal; and providing the reference signature response and the subsequent response for comparing the subsequent response to predetermined limits determined as offsets to the reference signature response.