mhurhangee/patent-ind-claim-en huggingface dataset:
A yarn winding machine comprising: a yarn supplying device adapted to hold a yarn (Y) in a suppliable manner; a winding device adapted to wind the yarn (Y) supplied from the yarn supplying device to form a package (P); a yarn monitoring device including a sensor adapted to detect a thickness of the yarn (Y) and adapted to monitor a state of the travelling yarn (Y) using a detection result of the sensor ; and a control device adapted to correct the measurement value of the thickness of the yarn (Y) detected by the sensor based on a tension of the yarn (Y); characterized in that the yarn monitoring device detects a yarn defect of the yarn (Y) based on the thickness of the yarn (Y) detected by the sensor , and the control device changes a threshold value related to a determination of a yarn defect detection by the yarn monitoring device based on the tension of the yarn (Y) . a yarn supplying device adapted to hold a yarn (Y) in a suppliable manner; a winding device adapted to wind the yarn (Y) supplied from the yarn supplying device to form a package (P); a yarn monitoring device including a sensor adapted to detect a thickness of the yarn (Y) and adapted to monitor a state of the travelling yarn (Y) using a detection result of the sensor ; and a control device adapted to correct the measurement value of the thickness of the yarn (Y) detected by the sensor based on a tension of the yarn (Y); characterized in that the yarn monitoring device detects a yarn defect of the yarn (Y) based on the thickness of the yarn (Y) detected by the sensor , and the control device changes a threshold value related to a determination of a yarn defect detection by the yarn monitoring device based on the tension of the yarn (Y) .
A HPTPβ-ECD binding agent for use in preventing a disease in an eye of a subject, wherein the HPTPβ-ECD binding agent is a monoclonal antibody produced by hybridoma cell line ATCC No. PTA-7580 or a humanized form thereof, wherein the disease is prevented by reduction in neovascularization and the disease is selected from proliferative retinopathy and age-related macular degeneration.
A method for transmitting a device-to-device, D2D, signal by a user equipment, UE, in a wireless communication system, the method comprising: determining whether to transmit a D2D signal, on the basis of a plurality of transmission probabilities of the UE in a plurality of frequency resource regions; and transmitting the D2D signal in a frequency resource region among the plurality of frequency resource regions upon determining that the UE is to transmit the D2D signal, wherein the plurality of transmission probabilities are allocated to the plurality of frequency resource regions, respectively, wherein if the UE determines to transmit the D2D signal in a first frequency resource region and in a second frequency resource region, the D2D signal is transmitted only in the first frequency resource region, and wherein a transmission probability of the UE in the first frequency resource region is lower than a transmission probability of the UE in the second frequency resource region. determining whether to transmit a D2D signal, on the basis of a plurality of transmission probabilities of the UE in a plurality of frequency resource regions; and transmitting the D2D signal in a frequency resource region among the plurality of frequency resource regions upon determining that the UE is to transmit the D2D signal, wherein the plurality of transmission probabilities are allocated to the plurality of frequency resource regions, respectively, wherein if the UE determines to transmit the D2D signal in a first frequency resource region and in a second frequency resource region, the D2D signal is transmitted only in the first frequency resource region, and wherein a transmission probability of the UE in the first frequency resource region is lower than a transmission probability of the UE in the second frequency resource region.
A method for changing operation states of a user equipment, the method comprising, at the user equipment: transmitting stationary state information indicating mobility information of the user equipment to a base station; receiving a control message comprising a state indication and DRX and measurement configuration information of the user equipment based on the stationary state information from the base station; determining a preferred operation state of the user equipment based on at least one parameter; determining a current operation state based on at least one of the configuration information of the user equipment and the state indication; and transmitting , when the preferred operation state is not equal to the current operation state, a state change request to a base station. transmitting stationary state information indicating mobility information of the user equipment to a base station; receiving a control message comprising a state indication and DRX and measurement configuration information of the user equipment based on the stationary state information from the base station; determining a preferred operation state of the user equipment based on at least one parameter; determining a current operation state based on at least one of the configuration information of the user equipment and the state indication; and transmitting , when the preferred operation state is not equal to the current operation state, a state change request to a base station.
A method of configuring an inlet for a flight vehicle engine , the method comprising: configuring streamline-traced inlet walls of the inlet, the streamline-traced inlet walls defining an interior space within the streamline-traced inlet walls; configuring a streamline-traced internal diverter within the inlet, for removing, from the inlet, boundary layer flow along one of the streamline-traced inlet walls; and forming the inlet walls to have one or more slots through which flow captured by the streamline-traced internal diverter is directed, out of the inlet; wherein the streamline-traced inlet walls are configured using an inlet-creating shape along streamlines of a flow field; and wherein the streamline-traced internal diverter is configured using a diverter-creating shape along streamlines of the flow field used for the inlet-creating shape. configuring streamline-traced inlet walls of the inlet, the streamline-traced inlet walls defining an interior space within the streamline-traced inlet walls; configuring a streamline-traced internal diverter within the inlet, for removing, from the inlet, boundary layer flow along one of the streamline-traced inlet walls; and forming the inlet walls to have one or more slots through which flow captured by the streamline-traced internal diverter is directed, out of the inlet; wherein the streamline-traced inlet walls are configured using an inlet-creating shape along streamlines of a flow field; and wherein the streamline-traced internal diverter is configured using a diverter-creating shape along streamlines of the flow field used for the inlet-creating shape.
An assembly for making a detector , said assembly including: an outer shell having a shell profile in which a portion of the shell profile extends as an annular flange in an outward direction relative to a center axis of the outer shell; and an end cap positioned adjacent the portion of the outer shell , the end cap and the portion of the outer shell being configured to be welded together to form a seal, wherein the end cap includes an annular shoulder such that the annular shoulder and the outwardly extending portion of the outer shell are configured for automatic welding and are configured to be welded together as part of an automated welding process, wherein the shell profile of the outer shell includes an annular recess positioned between the outwardly extending portion on one side of said recess and a shell projection on the opposite side of said recess , wherein the end cap includes a cap profile that substantially matches at least a portion of the shell profile , wherein the cap profile includes an annular cap recess positioned between the shoulder on one side of said cap recess and a cap projection on the opposite side of said cap recess , wherein said annular recess is formed by crimping said outer shell into said cap recess so that said annular recess matches the shape of said cap recess . an outer shell having a shell profile in which a portion of the shell profile extends as an annular flange in an outward direction relative to a center axis of the outer shell; and an end cap positioned adjacent the portion of the outer shell , the end cap and the portion of the outer shell being configured to be welded together to form a seal, wherein the end cap includes an annular shoulder such that the annular shoulder and the outwardly extending portion of the outer shell are configured for automatic welding and are configured to be welded together as part of an automated welding process, wherein the shell profile of the outer shell includes an annular recess positioned between the outwardly extending portion on one side of said recess and a shell projection on the opposite side of said recess , wherein the end cap includes a cap profile that substantially matches at least a portion of the shell profile , wherein the cap profile includes an annular cap recess positioned between the shoulder on one side of said cap recess and a cap projection on the opposite side of said cap recess , wherein said annular recess is formed by crimping said outer shell into said cap recess so that said annular recess matches the shape of said cap recess .
A method for detecting movement of a subject , the subject being located inside a magnetic resonance imaging device, the method comprising the steps: a) Providing at least one input signal ; b) Using the at least one input signal to generate a higher pilot tone signal having a transmission frequency which is at least twice as high as the Larmor frequency of the magnetic resonance imaging device; c) Transmitting the higher pilot tone signal towards the subject using a transmitting antenna , the transmitted higher pilot tone signal interacting with the subject ; d) Receiving the transmitted higher pilot tone signal using a receiving antenna ; e) Using the at least one input signal to convert the frequency of the transmitted higher pilot tone signal to an intermediate frequency which is equal to or lower than the frequency of the or one of the at least one input signal(s) , thereby generating a transmitted pilot tone signal; and f) Forwarding the transmitted pilot tone signal to an analysis system to detect changes in the transmitted higher pilot tone signal caused by movement of the subject . a) Providing at least one input signal ; b) Using the at least one input signal to generate a higher pilot tone signal having a transmission frequency which is at least twice as high as the Larmor frequency of the magnetic resonance imaging device; c) Transmitting the higher pilot tone signal towards the subject using a transmitting antenna , the transmitted higher pilot tone signal interacting with the subject ; d) Receiving the transmitted higher pilot tone signal using a receiving antenna ; e) Using the at least one input signal to convert the frequency of the transmitted higher pilot tone signal to an intermediate frequency which is equal to or lower than the frequency of the or one of the at least one input signal(s) , thereby generating a transmitted pilot tone signal; and f) Forwarding the transmitted pilot tone signal to an analysis system to detect changes in the transmitted higher pilot tone signal caused by movement of the subject .
Flexible haptic interface , comprising: - a chamber containing a non-Newtonian fluid and bounded at least partially by a flexible wall the exterior face of which defines a touch surface (S) capable of being touched by a user, - a plurality of actuators borne by a flexible carrier and placed so as to transmit a local mechanical excitation to the fluid , and - a control circuit connected to the actuators and configured to modulate the signals sent to the actuators in order to mechanically induce a modification of the rheology of the fluid and to generate a haptic sensation perceptible by the user on the touch surface (S) . - a chamber containing a non-Newtonian fluid and bounded at least partially by a flexible wall the exterior face of which defines a touch surface (S) capable of being touched by a user, - a plurality of actuators borne by a flexible carrier and placed so as to transmit a local mechanical excitation to the fluid , and - a control circuit connected to the actuators and configured to modulate the signals sent to the actuators in order to mechanically induce a modification of the rheology of the fluid and to generate a haptic sensation perceptible by the user on the touch surface (S) .
A humanized antibody binding to human CD3, wherein said antibody comprises a binding region comprising a heavy chain variable (VH) region of SEQ ID NO: 6 and a light chain variable (VL) region of SEQ ID NO: 10.
A strain gauge comprising: a flexible resin substrate ; and a resistor , characterized by further comprising a functional layer formed of a metal, an alloy, or a metal compound, directly on one surface of the substrate , wherein the resistor is formed of a film including Cr, CrN and Cr 2 N, directly on one surface of the functional layer , wherein the functional layer includes a material that allows for promotion of crystal growth of the resistor , and the crystal growth causes a film of the resistor formed with a main component to be formed, wherein the substrate includes a filler, wherein surface unevenness on the one surface of the substrate is 15 nm or less, and wherein the resistor has a film thickness of 0.05 μm or more. a flexible resin substrate ; and a resistor , characterized by further comprising a functional layer formed of a metal, an alloy, or a metal compound, directly on one surface of the substrate , wherein the resistor is formed of a film including Cr, CrN and Cr 2 N, directly on one surface of the functional layer , wherein the functional layer includes a material that allows for promotion of crystal growth of the resistor , and the crystal growth causes a film of the resistor formed with a main component to be formed, wherein the substrate includes a filler, wherein surface unevenness on the one surface of the substrate is 15 nm or less, and wherein the resistor has a film thickness of 0.05 μm or more.
A shaft seal having a ring shape, the shaft seal being configured to adhere to an outer peripheral surface of a rotational shaft , and seal sealed fluid that contains oil, the shaft seal having a generally U-shape in a sectional view about an axial direction, the shaft seal comprising: a seal lip part that is configured to extend to one side in the axial direction and slide on the rotational shaft ; and an outer lip part that is disposed at an outer diametrical side relative to the seal lip part , wherein: the shaft seal is a molded body of an elastomer composition characterized in that : the elastomer composition is thermoplastic and contains polyester elastomer as a main component, the bending elastic modulus based on ASTM D790 of the shaft seal is 200-2,400 MPa, and the thermoplastic elastomer composition contains 1-40 vol% of polytetrafluoroethylene resin relative to 100 vol% of the thermoplastic elastomer composition. a seal lip part that is configured to extend to one side in the axial direction and slide on the rotational shaft ; and an outer lip part that is disposed at an outer diametrical side relative to the seal lip part , wherein: the shaft seal is a molded body of an elastomer composition characterized in that : the elastomer composition is thermoplastic and contains polyester elastomer as a main component, the bending elastic modulus based on ASTM D790 of the shaft seal is 200-2,400 MPa, and the thermoplastic elastomer composition contains 1-40 vol% of polytetrafluoroethylene resin relative to 100 vol% of the thermoplastic elastomer composition. the shaft seal is a molded body of an elastomer composition characterized in that : the elastomer composition is thermoplastic and contains polyester elastomer as a main component, the bending elastic modulus based on ASTM D790 of the shaft seal is 200-2,400 MPa, and the thermoplastic elastomer composition contains 1-40 vol% of polytetrafluoroethylene resin relative to 100 vol% of the thermoplastic elastomer composition. the elastomer composition is thermoplastic and contains polyester elastomer as a main component, the bending elastic modulus based on ASTM D790 of the shaft seal is 200-2,400 MPa, and the thermoplastic elastomer composition contains 1-40 vol% of polytetrafluoroethylene resin relative to 100 vol% of the thermoplastic elastomer composition.
A method of providing a signed video bitstream suitable for transcoding from a first video format into a second video format, the method comprising: obtaining first video data in a lossy first video format; reconstructing a video sequence from the first video data; encoding the reconstructed video sequence as second video data in a second video format; computing one or more first fingerprints (h 11 , h 12 , h 13 , ...) of the first video data and one or more second fingerprints ( h 21 , h 22 , h 23 , ...) of the second video data; deriving at least one first bitstring ( H 1 ) from the first fingerprints and at least one second bitstring (H 2 ) from the second fingerprints; and providing a signed video bitstream , which includes the first video data and one or more signature units , each signature unit including a first digital signature ( s( H 1 )) of the derived first bitstring and second digital signature ( s ( H 2 )) of the derived second bitstring, and optionally the derived first bitstring and second bitstring. obtaining first video data in a lossy first video format; reconstructing a video sequence from the first video data; encoding the reconstructed video sequence as second video data in a second video format; computing one or more first fingerprints (h 11 , h 12 , h 13 , ...) of the first video data and one or more second fingerprints ( h 21 , h 22 , h 23 , ...) of the second video data; deriving at least one first bitstring ( H 1 ) from the first fingerprints and at least one second bitstring (H 2 ) from the second fingerprints; and providing a signed video bitstream , which includes the first video data and one or more signature units , each signature unit including a first digital signature ( s( H 1 )) of the derived first bitstring and second digital signature ( s ( H 2 )) of the derived second bitstring, and optionally the derived first bitstring and second bitstring.
Sprue system for a nozzle-side injection-moulding arrangement of an injection-moulding machine for introducing a plasticizable and/or plasticized plastics material into an injection-moulding tool of the injection-moulding machine along a runner , the centre axis of which fixes an injection axis , the sprue system having - a sprue piece , which at least partially forms the runner and comprises a tube portion and a flange portion , and also a - fastening means for fastening the sprue system to the injection-moulding tool and for aligning the sprue piece along the injection axis , wherein the sprue piece and the fastening means are formed adjustably in relation to one another and the sprue system has at least one adjusting means for setting a distance (A) between the flange portion of the sprue piece and the fastening means , characterized in that the flange portion has one or a plurality of flange threaded bores for engagement with at least one adjusting screw , the at least one adjusting screw , while engaging in a respective flange threaded bore , being supported with a stop face on the fastening means , for setting the distance (A) between the flange portion and the fastening means . - a sprue piece , which at least partially forms the runner and comprises a tube portion and a flange portion , and also a - fastening means for fastening the sprue system to the injection-moulding tool and for aligning the sprue piece along the injection axis ,
A system for controlling gain function of a hearing aid, and comprising a microphone adapted to convert a sound pressure to an input signal, a speaker adapted to convert an output signal to a processed sound pressure, a signal processing means interconnecting said microphone and said speaker and adapted to process said input signal to said output signal according to a control signal, and a signal analysis means connecting to said microphone and to said signal processing means , and CHARACTERIZED IN THAT said signal analysis means comprises a maximum level detector adapted to detect maximum level of said input signal, a squelch level detector adapted to detect squelch level of said input signal and a compression level detector adapted to determine level of said input signal and a controller means adapted to generate said control signal based on said maximum, squelch and compression level detectors' responses to said input signal, wherein said signal analysis means in a first signal path comprises a first filterbank adapted to separate said input signal into a first plurality of frequency band signals, wherein said maximum level detector is connected to said first filterbank to receive a frequency band signal of said first plurality and adapted to notify said controller means , when said frequency band signal of said first plurality is above a maximum threshold, with a short attack and short release time to enable said controller means to generate said control signal reducing gain of said signal processing means , wherein said squelch level detector is connected to said first filterbank to receive a frequency band signal of said first plurality and adapted to notify said controller means , when said frequency band signal of said first plurality is below a squelching threshold, with long attack and short release time to enable said controller means to generate said control signal reducing gain of said signal processing means .
A method for producing a polyethylene-2,5-furandicarboxylate (PEF) raw yarn, comprising: a spinning step wherein a PEF-containing resin composition which has been melted is extruded into filaments and bundled into an undrawn yarn; and a drawing step wherein the undrawn yarn, obtained by melt-spinning of the PEF-containing resin composition, is drawn into a PEF raw yarn, wherein a draw ratio in the drawing step is greater than 6.0 times; and the spinning and drawing steps are conducted in a single-stage spinning/drawing process wherein the undrawn yarn is continuously drawn without being recovered to form the PEF raw yarn; and a take-up step wherein the PEF raw yarn is taken up, wherein the ratio of a rate (T) of taking up the PEF raw yarn during the take-up step to a rate (E) of extrusion of the PEF-containing resin composition into filaments during the spinning step (T/E) is 700 to 2,000. a spinning step wherein a PEF-containing resin composition which has been melted is extruded into filaments and bundled into an undrawn yarn; and a drawing step wherein the undrawn yarn, obtained by melt-spinning of the PEF-containing resin composition, is drawn into a PEF raw yarn, wherein a draw ratio in the drawing step is greater than 6.0 times; and the spinning and drawing steps are conducted in a single-stage spinning/drawing process wherein the undrawn yarn is continuously drawn without being recovered to form the PEF raw yarn; and a take-up step wherein the PEF raw yarn is taken up, wherein the ratio of a rate (T) of taking up the PEF raw yarn during the take-up step to a rate (E) of extrusion of the PEF-containing resin composition into filaments during the spinning step (T/E) is 700 to 2,000.