mhurhangee/patent-ind-claim-en huggingface dataset:
A reinforced composite comprising: at least one fiber reinforcement formed from a plurality of fibers coated with a thermoset-compatible sizing composition, said fiber reinforcement having a first side and a second side; a chemical treatment coated in an amount from 1.0 to 20 weight percent of the fiber reinforcement on at least one of said first side and second side of said fiber reinforcement, wherein said chemical treatment includes one or more of a polyamide having a melting point less than 250 °C and a reactive compound selected from a primary amine, a primary amide, styrene-maleic anhydride and mixtures thereof; and a thermoplastic matrix material, wherein said thermoplastic material comprises a polyamide. at least one fiber reinforcement formed from a plurality of fibers coated with a thermoset-compatible sizing composition, said fiber reinforcement having a first side and a second side; a chemical treatment coated in an amount from 1.0 to 20 weight percent of the fiber reinforcement on at least one of said first side and second side of said fiber reinforcement, wherein said chemical treatment includes one or more of a polyamide having a melting point less than 250 °C and a reactive compound selected from a primary amine, a primary amide, styrene-maleic anhydride and mixtures thereof; and a thermoplastic matrix material, wherein said thermoplastic material comprises a polyamide.
Method for displaying navigation data on a digital instrument cluster of a vehicle, comprising a first screen (11.1) and a processing unit (11.2), said method comprising steps of: - Reception , by the processing unit (11.2), of a command to display one mode among at least two navigation data display modes, - Emission , by the processing unit (11.2), to a computer , of a message indicating the selected display mode, - Reception , by the processing unit (11.2), of video data, coming from the computer and corresponding to the selected display mode, the video data received by the processing unit (11.2) comprising metadata indicating the display mode associated with said video data, the metadata being encoded on a pixel of the images of the video data, the color of the pixel indicating the display mode, - Decoding of the metadata contained in the pixel, - Control of a display of the video data received in at least one display zone of the first screen (11.1) according to the display mode indicated in the metadata. - Reception , by the processing unit (11.2), of a command to display one mode among at least two navigation data display modes, - Emission , by the processing unit (11.2), to a computer , of a message indicating the selected display mode, - Reception , by the processing unit (11.2), of video data, coming from the computer and corresponding to the selected display mode, the video data received by the processing unit (11.2) comprising metadata indicating the display mode associated with said video data, the metadata being encoded on a pixel of the images of the video data, the color of the pixel indicating the display mode, - Decoding of the metadata contained in the pixel, - Control of a display of the video data received in at least one display zone of the first screen (11.1) according to the display mode indicated in the metadata.
An augmented-reality artificial retina system , comprising: an external device configured to be disposed outside the human body and including a micro display to provide a processed image which is image-processed based on external image information, the external device comprising: a camera to provide the external image information by capturing an external region of the human body, an image processor configured to provide the processed image by image-processing the external image information, and a digital controller configured to provide a first control signal and a second control signal; and an artificial retina device configured to be disposed in an eyeball inside the human body and configured to provide a retinal tissue included in the human body with an electrical signal corresponding to the processed image provided by the micro display , wherein the first control signal is provided to control the image processor and the second control signal is provided to control the artificial retina device , and wherein the digital controller is further configured to wirelessly provide the artificial retina device with data information based on the second control signal, wherein the artificial retina device is configured to control a pulse width and/or a pulse period of the electrical signal based on the data information. an external device configured to be disposed outside the human body and including a micro display to provide a processed image which is image-processed based on external image information, the external device comprising: a camera to provide the external image information by capturing an external region of the human body, an image processor configured to provide the processed image by image-processing the external image information, and a digital controller configured to provide a first control signal and a second control signal; and a camera to provide the external image information by capturing an external region of the human body, an image processor configured to provide the processed image by image-processing the external image information, and a digital controller configured to provide a first control signal and a second control signal; and an artificial retina device configured to be disposed in an eyeball inside the human body and configured to provide a retinal tissue included in the human body with an electrical signal corresponding to the processed image provided by the micro display , wherein the first control signal is provided to control the image processor and the second control signal is provided to control the artificial retina device , and wherein the digital controller is further configured to wirelessly provide the artificial retina device with data information based on the second control signal, wherein the artificial retina device is configured to control a pulse width and/or a pulse period of the electrical signal based on the data information.
A beverage dispensing machine , comprising: - at least one outlet device for dispensing said beverage; - at least one movable support for supporting a container ; said movable support movably supporting said beverage dispensing machine at least from a first small container position at least partially placed below said outlet device for receiving said beverage in a small container resting on said movable support , to a second large container position moved away from below said outlet device for positioning a large container below said outlet device ; wherein machine comprises at least one cam device ; wherein said at least one cam device guides the rotation of said at least one movable support between said first small container position and said second large container position , and vice versa; characterized in that said first small container position and said second large container position are stable positions separated from each other by at least one unstable position which, without external forces, causes said at least one movable support to return to the closest stable position between said first small container position and said second large container position . - at least one outlet device for dispensing said beverage; - at least one movable support for supporting a container ; said movable support movably supporting said beverage dispensing machine at least from a first small container position at least partially placed below said outlet device for receiving said beverage in a small container resting on said movable support , to a second large container position moved away from below said outlet device for positioning a large container below said outlet device ; wherein machine comprises at least one cam device ; wherein said at least one cam device guides the rotation of said at least one movable support between said first small container position and said second large container position , and vice versa; characterized in that said first small container position and said second large container position are stable positions separated from each other by at least one unstable position which, without external forces, causes said at least one movable support to return to the closest stable position between said first small container position and said second large container position . wherein machine comprises at least one cam device ; wherein said at least one cam device guides the rotation of said at least one movable support between said first small container position and said second large container position , and vice versa; characterized in that said first small container position and said second large container position are stable positions separated from each other by at least one unstable position which, without external forces, causes said at least one movable support to return to the closest stable position between said first small container position and said second large container position .
A retinal scanning head-mounted display comprising: an optical scanning controller that emits, as image light, a laser beam in accordance with an image signal; a transmission cable that transmits the image light emitted from the optical scanning controller ; and a head mount unit (HM) provided with an optical scanner including a mirror for scanning the image light transmitted by the transmission cable so as to project the image light onto a retina of a user, wherein the head mount unit (HM) includes an amplifier that amplifies a motion signal corresponding to a tilt of the mirror , the motion signal being output from the optical scanner , the retinal scanning head-mounted display being characterized in that the optical scanning controller includes a difference generator that generates a difference signal from the motion signal output from the amplifier through the transmission cable and a filter that removes noise from the difference signal generated by the difference generator , wherein the optical scanner includes a horizontal displacement sensor and a vertical displacement sensor , wherein the horizontal displacement sensor detects a displacement of the mirror in a horizontal direction, wherein the vertical displacement sensor detects a displacement of the mirror in a vertical direction, and wherein the amplifier amplifies a horizontal sensor signal output from the horizontal displacement sensor and a vertical sensor signal output from the vertical displacement sensor as the motion signal. an optical scanning controller that emits, as image light, a laser beam in accordance with an image signal; a transmission cable that transmits the image light emitted from the optical scanning controller ; and a head mount unit (HM) provided with an optical scanner including a mirror for scanning the image light transmitted by the transmission cable so as to project the image light onto a retina of a user, wherein the head mount unit (HM) includes an amplifier that amplifies a motion signal corresponding to a tilt of the mirror , the motion signal being output from the optical scanner , the retinal scanning head-mounted display being characterized in that the optical scanning controller includes a difference generator that generates a difference signal from the motion signal output from the amplifier through the transmission cable and a filter that removes noise from the difference signal generated by the difference generator , wherein the optical scanner includes a horizontal displacement sensor and a vertical displacement sensor , wherein the horizontal displacement sensor detects a displacement of the mirror in a horizontal direction, wherein the vertical displacement sensor detects a displacement of the mirror in a vertical direction, and wherein the amplifier amplifies a horizontal sensor signal output from the horizontal displacement sensor and a vertical sensor signal output from the vertical displacement sensor as the motion signal.
Use of an aromatic polycarbonate prepared by the transesterification of a bisphenol and a diaryl carbonate and having: - a viscosity average molecular weight, Mv, of from 22000 to 32000 g/mol - a polydispersity, defined as Mw/Mn, of from 1.8 - 3.2, preferably from 2.0 - 3.0 - a melt-flow index of from 3.0 - 10 g/10 min as determined in accordance with ASTM D 1238 (1.2 kg, 300°C) - an amount of Fries branching of from 750 to 2500 ppm for the manufacture of bottles having a volume of at least 15 liter by means of an injection blow moulding or an extrusion blow moulding process. - a viscosity average molecular weight, Mv, of from 22000 to 32000 g/mol - a polydispersity, defined as Mw/Mn, of from 1.8 - 3.2, preferably from 2.0 - 3.0 - a melt-flow index of from 3.0 - 10 g/10 min as determined in accordance with ASTM D 1238 (1.2 kg, 300°C) - an amount of Fries branching of from 750 to 2500 ppm
A data transmission method, which is performed by a base station and comprises: configuring (101; 201) a plurality of grant-free transmission resource configurations that are selectable for performing uplink data transmission at a User Equipment, UE ; transmitting (102; 202) the plurality of grant-free transmission resource configurations to the UE ; and characterized by notifying , through a dynamic signaling, the UE to deactivate at least two of the plurality of grant-free transmission resource configurations. configuring (101; 201) a plurality of grant-free transmission resource configurations that are selectable for performing uplink data transmission at a User Equipment, UE ; transmitting (102; 202) the plurality of grant-free transmission resource configurations to the UE ; and characterized by notifying , through a dynamic signaling, the UE to deactivate at least two of the plurality of grant-free transmission resource configurations.
A method for receiving downlink signals by a user equipment, UE, in a wireless communication system, the method comprising: receiving , on a physical downlink control channel, PDCCH, control information for a cell operating on an unlicensed band, the control information indicating information on orthogonal frequency division multiplexing, OFDM, symbols in a subframe for transmission on the unlicensed band; and receiving a downlink signal on at least a portion of the OFDM symbols in the subframe for transmission on the unlicensed band based on the control information; wherein the number of the OFDM symbols in a last subframe for transmission on the unlicensed band is determined based on a downlink pilot time slot, DwPTS, duration according to a special subframe configuration used by a communication system using a time division duplexing, TDD, scheme. receiving , on a physical downlink control channel, PDCCH, control information for a cell operating on an unlicensed band, the control information indicating information on orthogonal frequency division multiplexing, OFDM, symbols in a subframe for transmission on the unlicensed band; and receiving a downlink signal on at least a portion of the OFDM symbols in the subframe for transmission on the unlicensed band based on the control information; wherein the number of the OFDM symbols in a last subframe for transmission on the unlicensed band is determined based on a downlink pilot time slot, DwPTS, duration according to a special subframe configuration used by a communication system using a time division duplexing, TDD, scheme.
A method for providing configuration for downlink transmission to a wireless device , the method being performed by a network node , the method comprising: transmitting (S102) a Downlink Control Information, DCI, message comprising a Downlink, DL, short Transmission Time Interval, sTTI, configuration for DL sTTI data transmission in an sTTI, which is shorter than a legacy Transmission Time Interval, TTI, wherein: the DL sTTI data transmission following a starting symbol index of 1 or 3 have a first pattern consisting of one 3-symbol sTTI, four 2-symbol sTTIs and one 3-symbol sTTI in consecutive order, and the DL sTTI data transmission following a starting symbol index of 2 have a second pattern consisting of one 2-symbol sTTI, one 3-symbol sTTI, three 2-symbol sTTIs and one 3-symbol sTTI in consecutive order, wherein the starting symbol index is the first symbol within a subframe that DL sTTI data transmission can be performed. the DL sTTI data transmission following a starting symbol index of 1 or 3 have a first pattern consisting of one 3-symbol sTTI, four 2-symbol sTTIs and one 3-symbol sTTI in consecutive order, and the DL sTTI data transmission following a starting symbol index of 2 have a second pattern consisting of one 2-symbol sTTI, one 3-symbol sTTI, three 2-symbol sTTIs and one 3-symbol sTTI in consecutive order, wherein the starting symbol index is the first symbol within a subframe that DL sTTI data transmission can be performed.
An ultrasound imaging system comprising: a transducer that is configured to transmit ultrasound signals to and receive ultrasound signals from a region of interest; a receive circuitry that is configured to convert the received ultrasound signals into first image frames of ultrasound data; a display to display the first image frames of ultrasound data; a cine buffer to store the first image frames of ultrasound data produced during an examination; and a processor that is configured to receive an indication of a type of examination being performed by the operator; analyze the first image frames stored in the cine buffer; compare sequential first image frames from the cine buffer; select one or more first image frames of the first image frames from the cine buffer that differ from a previous image frame that was stored in the cine buffer before the one or more first image frames; recall one or more target image frames associated with the type of examination performed by the operator; compare the first image frames from the cine buffer to the one or more target image frames; and select the first image frames from the cine buffer that match with the one or more target image frames for presentation to the operator. a transducer that is configured to transmit ultrasound signals to and receive ultrasound signals from a region of interest; a receive circuitry that is configured to convert the received ultrasound signals into first image frames of ultrasound data; a display to display the first image frames of ultrasound data; a cine buffer to store the first image frames of ultrasound data produced during an examination; and a processor that is configured to receive an indication of a type of examination being performed by the operator; analyze the first image frames stored in the cine buffer; compare sequential first image frames from the cine buffer; select one or more first image frames of the first image frames from the cine buffer that differ from a previous image frame that was stored in the cine buffer before the one or more first image frames; recall one or more target image frames associated with the type of examination performed by the operator; compare the first image frames from the cine buffer to the one or more target image frames; and select the first image frames from the cine buffer that match with the one or more target image frames for presentation to the operator. receive an indication of a type of examination being performed by the operator; analyze the first image frames stored in the cine buffer; compare sequential first image frames from the cine buffer; select one or more first image frames of the first image frames from the cine buffer that differ from a previous image frame that was stored in the cine buffer before the one or more first image frames; recall one or more target image frames associated with the type of examination performed by the operator; compare the first image frames from the cine buffer to the one or more target image frames; and select the first image frames from the cine buffer that match with the one or more target image frames for presentation to the operator.
A method of generating a computer-based observable model of an implantable tissue repair mesh secured to a patient to repair tissue defects, comprising: processing data corresponding to a patient using a computing device including a processor and a memory storing a software application executable by the processor; indicating an implantable tissue repair mesh and a fixation for securing the implantable tissue repair mesh to the patient; providing activity data for an activity to be performed by the patient with the activity data relating to a stress field on the mesh, zones of the mesh and or points to which the fixation is to be applied; deriving from the indicated implantable tissue repair mesh and the fixation and the processed data corresponding to a patient at least one distribution of the fixation about the implantable tissue repair mesh; generating an observable model of the implantable tissue repair mesh secured to the patient on a display operably associated with the computing device from the at least one derived distribution of the fixation about the implantable tissue repair mesh and the activity data to provide a simulation of an effect of the indicated activity on the implantable tissue repair mesh secured to the patient. processing data corresponding to a patient using a computing device including a processor and a memory storing a software application executable by the processor; indicating an implantable tissue repair mesh and a fixation for securing the implantable tissue repair mesh to the patient; providing activity data for an activity to be performed by the patient with the activity data relating to a stress field on the mesh, zones of the mesh and or points to which the fixation is to be applied; deriving from the indicated implantable tissue repair mesh and the fixation and the processed data corresponding to a patient at least one distribution of the fixation about the implantable tissue repair mesh; generating an observable model of the implantable tissue repair mesh secured to the patient on a display operably associated with the computing device from the at least one derived distribution of the fixation about the implantable tissue repair mesh and the activity data to provide a simulation of an effect of the indicated activity on the implantable tissue repair mesh secured to the patient.