mhurhangee/patent-ind-claim-en huggingface dataset:
A hemostatic device comprising: a covering member configured to be disposed to cover a site (t1) where bleeding is to be stopped on a hand (H) of a patient; a securing member configured to secure the covering member in a state where the covering member covers the site (t1) where bleeding is to be stopped; and an inflatable member connected to the covering member and configured to be inflated by injection of a fluid, wherein the covering member includes a main body to which the inflatable member is connected, a first arm portion protruding from the main body , and a second arm portion protruding from the main body while forming an obtuse angle (θ1) with a longitudinal direction of the first arm portion , the first arm portion has a convex portion protruding in a width direction of the first arm portion at an end portion of the first arm portion , and the second arm portion is longer than the first arm portion and is configured to be secured to the convex portion and secured to the second arm portion by passing between fingers of the patient in a state where the second arm portion is wrapped around a limb of the patient, characterized in that the inflatable member has a first inflatable portion and a deformable auxiliary member having a smaller outer shape than an outer shape of the first inflatable portion , and the auxiliary member is disposed to overlap the first inflatable portion on a distal side of the main body . a covering member configured to be disposed to cover a site (t1) where bleeding is to be stopped on a hand (H) of a patient; a securing member configured to secure the covering member in a state where the covering member covers the site (t1) where bleeding is to be stopped; and an inflatable member connected to the covering member and configured to be inflated by injection of a fluid, wherein the covering member includes a main body to which the inflatable member is connected, a first arm portion protruding from the main body , and a second arm portion protruding from the main body while forming an obtuse angle (θ1) with a longitudinal direction of the first arm portion , the first arm portion has a convex portion protruding in a width direction of the first arm portion at an end portion of the first arm portion , and the second arm portion is longer than the first arm portion and is configured to be secured to the convex portion and secured to the second arm portion by passing between fingers of the patient in a state where the second arm portion is wrapped around a limb of the patient, characterized in that the inflatable member has a first inflatable portion and a deformable auxiliary member having a smaller outer shape than an outer shape of the first inflatable portion , and the auxiliary member is disposed to overlap the first inflatable portion on a distal side of the main body .
A dispersed carrier phase-shifting method, comprising: connecting at least two power modules in series and/or in parallel to form a modular system, each of the power modules comprising a control module for sampling at least twice a common state variate ( a k i ), a sign of a slope of the common state variate sampled at a first sampling time being opposite to a sign of a slope of the common state variate sampled at a second sampling time, a reference time of the first sampling time for each of the control modules being the same, characterised in that the method further comprises regulating a carrier frequency ( f k ) of the power module according to a relative size between a sampled value ( a k 1 ) at the first sampling time and a sampled value ( a k 2 ) at the second sampling time. connecting at least two power modules in series and/or in parallel to form a modular system, each of the power modules comprising a control module for sampling at least twice a common state variate ( a k i ), a sign of a slope of the common state variate sampled at a first sampling time being opposite to a sign of a slope of the common state variate sampled at a second sampling time, a reference time of the first sampling time for each of the control modules being the same, characterised in that the method further comprises regulating a carrier frequency ( f k ) of the power module according to a relative size between a sampled value ( a k 1 ) at the first sampling time and a sampled value ( a k 2 ) at the second sampling time.
An evaporator assembly for a horizontal type ice making machine , the assembly comprising: a plurality of tubes for circulating a refrigerant; a plurality of conductive protrusions , thermally coupled to and extending from each of the plurality of tubes ; a non-conductive plate arranged adjacent to the plurality of tubes , the non-conductive plate is defined with a plurality of moulds , wherein each of the plurality of moulds is defined with a provision to receive one of the plurality of conductive protrusions wherein, each of the plurality of moulds along with a corresponding conductive protrusion of the plurality of conductive protrusions , defines an ice forming region; and a plurality of conductive hemispherical structures thermally coupled to the plurality of tubes , wherein each of the plurality of conductive hemispherical structures is configured to enclose a top surface of one of the plurality of moulds . a plurality of tubes for circulating a refrigerant; a plurality of conductive protrusions , thermally coupled to and extending from each of the plurality of tubes ; a non-conductive plate arranged adjacent to the plurality of tubes , the non-conductive plate is defined with a plurality of moulds , wherein each of the plurality of moulds is defined with a provision to receive one of the plurality of conductive protrusions wherein, each of the plurality of moulds along with a corresponding conductive protrusion of the plurality of conductive protrusions , defines an ice forming region; and a plurality of conductive hemispherical structures thermally coupled to the plurality of tubes , wherein each of the plurality of conductive hemispherical structures is configured to enclose a top surface of one of the plurality of moulds .
A memory device comprising: a memory cell array ; and a data input/output circuit configured to scale a data, hereinafter referred to as DQ, signal that includes data read from the memory cell array and output the scaled DQ signal, wherein the data input/output circuit is configured to scale the DQ signal based on an n-level pulse amplitude modulation, hereinafter referred to as PAMn, with a DQ parameter that corresponds to an operating frequency condition, and wherein n is an integer greater than or equal to four, wherein the data input/output circuit is configured to output first and second DQ signals that are scaled with different DQ parameters respectively in response to first and second read commands received under different operating frequency conditions, wherein, when the first DQ signal corresponds to an operating frequency condition that is higher than an operating frequency condition corresponding to the second DQ signal: an interval between adjacent levels of the n levels in the first DQ signal is greater than an interval between adjacent levels of the n levels in the second DQ signal; and/or a transition slope between adjacent levels of the n levels in the first DQ signal is steeper than a transition slope between adjacent levels of the n levels of the second DQ signal. a memory cell array ; and a data input/output circuit configured to scale a data, hereinafter referred to as DQ, signal that includes data read from the memory cell array and output the scaled DQ signal, wherein the data input/output circuit is configured to scale the DQ signal based on an n-level pulse amplitude modulation, hereinafter referred to as PAMn, with a DQ parameter that corresponds to an operating frequency condition, and wherein n is an integer greater than or equal to four, wherein the data input/output circuit is configured to output first and second DQ signals that are scaled with different DQ parameters respectively in response to first and second read commands received under different operating frequency conditions, wherein, when the first DQ signal corresponds to an operating frequency condition that is higher than an operating frequency condition corresponding to the second DQ signal: an interval between adjacent levels of the n levels in the first DQ signal is greater than an interval between adjacent levels of the n levels in the second DQ signal; and/or a transition slope between adjacent levels of the n levels in the first DQ signal is steeper than a transition slope between adjacent levels of the n levels of the second DQ signal. an interval between adjacent levels of the n levels in the first DQ signal is greater than an interval between adjacent levels of the n levels in the second DQ signal; and/or a transition slope between adjacent levels of the n levels in the first DQ signal is steeper than a transition slope between adjacent levels of the n levels of the second DQ signal.
A device for biological fluid separation, comprising: a first surface and a second surface, at least one of said first and second surfaces comprising a hydrophobic region, a superhydrophobic region, or both, the device being configured such that in a closed state, the first and second surfaces are positioned opposite one another so as to define a volume between the surfaces, at least one separation membrane being disposed in the second surface, the separation membrane being positioned so as to be in fluid communication with the volume between the surfaces when the device is in the closed state, the separation membrane being selectively permeable to a fluid blood component, characterized in that the first surface includes a hydrophilic region at least partially in register with the separation membrane when the device is in the closed state and wherein the hydrophilic region is arranged as a base or landing location for the biological fluid. a first surface and a second surface, at least one of said first and second surfaces comprising a hydrophobic region, a superhydrophobic region, or both, the device being configured such that in a closed state, the first and second surfaces are positioned opposite one another so as to define a volume between the surfaces, at least one separation membrane being disposed in the second surface, the separation membrane being positioned so as to be in fluid communication with the volume between the surfaces when the device is in the closed state, the separation membrane being selectively permeable to a fluid blood component,
Coding device for converting a digital data stream into a digital baseband signal in the time domain or into a digital intermediate frequency signal in the time domain; characterized in that the coding device has at least one asynchronous serial interface for outputting the digital baseband signal or the digital intermediate frequency signal in the time domain, has an output device connected to the asynchronous serial interface for converting the digital baseband signal or digital intermediate frequency signal into the transmission format of the asynchronous serial interface , and a synchronization unit for generating a clock signal and that is connected to the output device and a synchronization interface for outputting the clock signal; and in that the coding device has at least one further asynchronous serial interface , and a sine component of the digital baseband signal is output as first digital signal and a cosine component of the digital baseband signal is output as second digital signal via different asynchronous serial interfaces , wherein the asynchronous serial interfaces are interfaces in accordance with the EN-500083-9 European standard.
Method for aligning a line laser , wherein at least one body , which reflects radiation at its surface and has a beam trap which absorbs radiation , the beam trap being formed as a slit-shaped depression, and a line laser are positioned in relation to one another, wherein the line laser and/or the body are aligned such that the radiation of the line laser is absorbed in the beam trap of the body .
Ultrasound transducer with at least one piezoelectric oscillator , a damping compound and two electrically conductive conducting elements that are in contact with the piezoelectric oscillator , wherein the damping compound encloses the conducting elements , and the composite structure of the conducting elements and of the damping compound is designed such that the composite structure is in contact over an area with the piezoelectric oscillator , and forms a support on the side of the ultrasound transducer that faces away from the piezoelectric oscillator on which the ultrasound transducer can be supported, wherein the conducting elements are designed as helical springs, and wherein the conducting elements are each in contact with the piezoelectric oscillator at one end.
An X-ray radiography device, the device comprising: an X-ray source including a plurality of X-ray emitting elements to emit X-rays to a target respectively; and an X-ray detector including a plurality of X-ray detecting elements to detect each of the X-rays transmitted through the target, characterized in that the plurality of X-ray emitting elements are arranged in an at least 2 x 2 pixel matrix on a first curved surface that covers at least three sides of the target, the plurality of X-ray detecting elements are arranged in an at least 2 x 2 pixel matrix on a second curved surface, and the first curved surface has an opening used as a path for an entrance of the target, the second curved surface has a radius smaller than the first curved surface and the second curved surface is adapted to move along the inside of the first curved surface. an X-ray source including a plurality of X-ray emitting elements to emit X-rays to a target respectively; and an X-ray detector including a plurality of X-ray detecting elements to detect each of the X-rays transmitted through the target, characterized in that the plurality of X-ray emitting elements are arranged in an at least 2 x 2 pixel matrix on a first curved surface that covers at least three sides of the target, the plurality of X-ray detecting elements are arranged in an at least 2 x 2 pixel matrix on a second curved surface, and the first curved surface has an opening used as a path for an entrance of the target, the second curved surface has a radius smaller than the first curved surface and the second curved surface is adapted to move along the inside of the first curved surface.
A method for positioning first and second directive radio antennas in a non-line-of-sight, NLOS, communication scenario, the method comprising the steps of; • configuring (S1) the first antenna to have an antenna main lobe L1; • configuring (S2) the second antenna to be a directive antenna having an antenna main lobe L2 , the second antenna configured to focus emitted electromagnetical energy in a respective pre-determined direction • transmitting (S3) a first alignment signal from the first antenna to the second antenna ; • positioning (S4) the second antenna based on the received first alignment signal such that the second antenna, after positioning, is arranged to communicate with the first antenna using an NLOS propagation channel via reflection in an area (C2) on a reflective object ; • re-configuring (S5) the first antenna to be a directive antenna having an antenna main lobe L3 , the antenna main lobe L3 having a more narrow main lobe width than the antenna main lobe L1, the first antenna with main lobe L3 configured to focus emitted electromagnetical energy in a respective pre-determined direction; • transmitting (S6) a second alignment signal from the second antenna with main lobe L2 to the first antenna ; • positioning (S7) the first antenna based on the received second alignment signal; • configuring (S1) the first antenna to have an antenna main lobe L1; • configuring (S2) the second antenna to be a directive antenna having an antenna main lobe L2 , the second antenna configured to focus emitted electromagnetical energy in a respective pre-determined direction • transmitting (S3) a first alignment signal from the first antenna to the second antenna ; • positioning (S4) the second antenna based on the received first alignment signal such that the second antenna, after positioning, is arranged to communicate with the first antenna using an NLOS propagation channel via reflection in an area (C2) on a reflective object ; • re-configuring (S5) the first antenna to be a directive antenna having an antenna main lobe L3 , the antenna main lobe L3 having a more narrow main lobe width than the antenna main lobe L1, the first antenna with main lobe L3 configured to focus emitted electromagnetical energy in a respective pre-determined direction; • transmitting (S6) a second alignment signal from the second antenna with main lobe L2 to the first antenna ; • positioning (S7) the first antenna based on the received second alignment signal;
A computer-implemented method for real-time transmission of data streams from a video transmitting device adapted to generate and transmit at least: (i) a first data stream, the first data stream for providing to a browser and comprising at least one preview frame, and (ii) a second data stream, the first data stream and the second data stream generated based on the same captured video stream, the second data stream having a higher bitrate relative to the first data stream, the method comprising: determining, by a processor, a difference (K) between a number of video preview frames sent (J) and the number of acknowledgements that those frames have been received (A); causing, by the processor, the video transmitting device to (i) decrease the transmission framerate when the difference (K) is greater than a number X, and (ii) increase a transmission framerate when the difference (K) is less than the number X, wherein the number X is determined by a function of an exponential moving average of the difference (K); and communicating, by the processor, the electronic instructions to the video transmitting device, the video transmitting device configured for receiving the electronic instructions and modifying the transmission framerate of the first data stream; wherein the modification of the transmission framerate associated with the first data stream changes a utilization of transmission bandwidth by the first and the second data streams, wherein the transmission bandwidth is shared between the transmission of the first data stream and the transmission of the second data stream, the second data stream having a higher latency relative to both the captured video stream and the first data stream. determining, by a processor, a difference (K) between a number of video preview frames sent (J) and the number of acknowledgements that those frames have been received (A); causing, by the processor, the video transmitting device to (i) decrease the transmission framerate when the difference (K) is greater than a number X, and (ii) increase a transmission framerate when the difference (K) is less than the number X, wherein the number X is determined by a function of an exponential moving average of the difference (K); and communicating, by the processor, the electronic instructions to the video transmitting device, the video transmitting device configured for receiving the electronic instructions and modifying the transmission framerate of the first data stream; wherein the modification of the transmission framerate associated with the first data stream changes a utilization of transmission bandwidth by the first and the second data streams, wherein the transmission bandwidth is shared between the transmission of the first data stream and the transmission of the second data stream, the second data stream having a higher latency relative to both the captured video stream and the first data stream.
A method for indicating a position of a resource set, comprising: determining , by a base station, the position of at least one resource set, wherein the position of the at least one resource set is a position where rate matching is required when a terminal transmits data on an uplink channel; and indicating , by the base station, the position of the at least one resource set to the terminal via explicit signaling; wherein the explicit signaling is high-layer signaling, or, the explicit signaling is Layer-1 signaling; wherein a quantity of the at least one resource set is N, and a period that each resource set occurs is independently configured, wherein N is a positive integer greater than or equal to 1; and a resource set is composed of T orthogonal frequency division multiplexing, OFDM, symbols on a time domain and F resource blocks, RBs, on a frequency domain, wherein T is an integer greater than or equal to 0, and F is an integer greater than or equal to 0; wherein the period is configured by the high-layer signaling by taking slot as a unit, and a minimum period is 1 slot. determining , by a base station, the position of at least one resource set, wherein the position of the at least one resource set is a position where rate matching is required when a terminal transmits data on an uplink channel; and indicating , by the base station, the position of the at least one resource set to the terminal via explicit signaling; wherein the explicit signaling is high-layer signaling, or, the explicit signaling is Layer-1 signaling; wherein a quantity of the at least one resource set is N, and a period that each resource set occurs is independently configured, wherein N is a positive integer greater than or equal to 1; and a resource set is composed of T orthogonal frequency division multiplexing, OFDM, symbols on a time domain and F resource blocks, RBs, on a frequency domain, wherein T is an integer greater than or equal to 0, and F is an integer greater than or equal to 0; wherein the period is configured by the high-layer signaling by taking slot as a unit, and a minimum period is 1 slot.
A polymeric ophthalmic device material made by polymerizing a mixture of monomers wherein the mixture comprises: a) a total of 70 - 90 wt. % of one or more cycloaliphatic acrylic monomers of formula (I) wherein: A is H or CH 3 ; B is O, NR, or S; D is O, S, or nothing; E is CH 3 , CH 2 CH 3 , CH(CH 3 ) 2 , C(CH 3 ) 3 , CH 2 OH or H; R is H, CH 3 , CH 2 CH 3 , or CH(CH 3 ) 2 ; x is 1 - 4, provided that if x is > 1, then not more than one CHE group has E ≠ H; y is 0 - 2; and z is 0 - 4, provided that if D = nothing, then z ≠ 0; b) a total of 5 - 25 wt. % of one or more hydrophilic monomers selected from the group consisting of: hydroxy(C 2 - C 4 alkyl)methacrylates, glycerol methacrylate, and N -vinyl pyrrolidone; and c) a copolymerizable cross-linking agent; wherein the ophthalmic device material has a refractive index of 1.46 - 1.50 and an Abbe number greater than 47. a) a total of 70 - 90 wt. % of one or more cycloaliphatic acrylic monomers of formula (I) wherein: A is H or CH 3 ; B is O, NR, or S; D is O, S, or nothing; E is CH 3 , CH 2 CH 3 , CH(CH 3 ) 2 , C(CH 3 ) 3 , CH 2 OH or H; R is H, CH 3 , CH 2 CH 3 , or CH(CH 3 ) 2 ; x is 1 - 4, provided that if x is > 1, then not more than one CHE group has E ≠ H; y is 0 - 2; and z is 0 - 4, provided that if D = nothing, then z ≠ 0; A is H or CH 3 ; B is O, NR, or S; D is O, S, or nothing; E is CH 3 , CH 2 CH 3 , CH(CH 3 ) 2 , C(CH 3 ) 3 , CH 2 OH or H; R is H, CH 3 , CH 2 CH 3 , or CH(CH 3 ) 2 ; x is 1 - 4, provided that if x is > 1, then not more than one CHE group has E ≠ H; y is 0 - 2; and z is 0 - 4, provided that if D = nothing, then z ≠ 0; b) a total of 5 - 25 wt. % of one or more hydrophilic monomers selected from the group consisting of: hydroxy(C 2 - C 4 alkyl)methacrylates, glycerol methacrylate, and N -vinyl pyrrolidone; and c) a copolymerizable cross-linking agent; wherein the ophthalmic device material has a refractive index of 1.46 - 1.50 and an Abbe number greater than 47.