mhurhangee/patent-ind-claim-en huggingface dataset:
A beam position monitor for performing calculation processing of the state of a charged particle beam that has been accelerated by an accelerator and scanned by a scanning electromagnet , the beam position monitor comprising: a plurality of position monitors for detecting a passing position of the charged particle beam through a plurality of detection channels; and a beam data processing device for performing calculation processing of the state of the charged particle beam , based on a plurality of analogue signals outputted from the plurality of position monitors , wherein the beam data processing device includes a plurality of channel data conversion units for performing AD conversion processing in which each of the plurality of analogue signals outputted from the position monitors is converted into a digital signal; a position size processing unit , for each of the position monitors , for calculating a beam position (P), which is a passing position of the charged particle beam in the position monitor , based on a plurality of voltage information items obtained through processing by the plurality of channel data conversion units ; and an integrated control unit for controlling the plurality of channel data conversion units , characterized in that the integrated control unit is configured to output processing start signals (sigcm) for starting the AD conversion processing of the respective data conversion units at different timings for the respective position monitors , while the charges particle beam is irradiated onto an irradiation subject . a plurality of position monitors for detecting a passing position of the charged particle beam through a plurality of detection channels; and a beam data processing device for performing calculation processing of the state of the charged particle beam , based on a plurality of analogue signals outputted from the plurality of position monitors , wherein the beam data processing device includes a plurality of channel data conversion units for performing AD conversion processing in which each of the plurality of analogue signals outputted from the position monitors is converted into a digital signal; a position size processing unit , for each of the position monitors , for calculating a beam position (P), which is a passing position of the charged particle beam in the position monitor , based on a plurality of voltage information items obtained through processing by the plurality of channel data conversion units ; and an integrated control unit for controlling the plurality of channel data conversion units , characterized in that the integrated control unit is configured to output processing start signals (sigcm) for starting the AD conversion processing of the respective data conversion units at different timings for the respective position monitors , while the charges particle beam is irradiated onto an irradiation subject .
A polypeptide having transgalactosylating activity, selected from the group consisting of: a. a polypeptide comprising an amino acid sequence having at least 80% sequence identity with SEQ ID NO: 1, b. a polypeptide comprising an amino acid sequence having at least 80% sequence identity with SEQ ID NO: 2, c. a polypeptide comprising an amino acid sequence having at least 80% sequence identity with SEQ ID NO: 3, wherein the length of the polypeptide is 500 to 1038 amino acid residues. a. a polypeptide comprising an amino acid sequence having at least 80% sequence identity with SEQ ID NO: 1, b. a polypeptide comprising an amino acid sequence having at least 80% sequence identity with SEQ ID NO: 2, c. a polypeptide comprising an amino acid sequence having at least 80% sequence identity with SEQ ID NO: 3,
A nerve growth factor composition, characterized in that the composition consists of a nerve growth factor, a stabilizer, a pH buffer and a water; said stabilizer is at least one of sorbitol, dextran, trehalose, raffinose and mannitol, and wherein a mass-volume concentration of said nerve growth factor is 10 μg/mL-100 μg/mL; a mass-volume concentration of said stabilizer is 30 mg/mL-120 mg/mL; the pH buffer maintains said nerve growth factor composition at a pH value of 6.8 to 7.0; solvent is water.
A device for discreetly piercing a skin of a patient, the device comprising: a body having a proximal end and a distal end ; a cutting member attached to a plunger , the cutting member and the plunger positioned at least partially within the body ; and a biasing member configured to bias the cutting member to an initial position whereby the cutting member is positioned fully within the body ; wherein the plunger is slidable into the proximal end of the body , causing the cutting member to extend from the distal end of the body , and : a cup portion coupled to or formed as part of the body and attached to the body at a proximal end of the cup portion , a distal end of the cup portion extending from the body radially outward and toward the distal end of the body such that any section of the cup portion not attached to the body has a greater diameter than the body , and the cup portion further comprising an opening defined in the distal end of the cup portion , wherein the opening is larger than the body , and the body extends into the distal end of the cup portion ; wherein the cup portion has a transparent portion on one relative side of the cup portion for allowing a user of the device to see a piercing procedure, and a non-transparent portion on the other relative side of the cup portion for shielding the patient from seeing the piercing procedure. a body having a proximal end and a distal end ; a cutting member attached to a plunger , the cutting member and the plunger positioned at least partially within the body ; and a biasing member configured to bias the cutting member to an initial position whereby the cutting member is positioned fully within the body ; wherein the plunger is slidable into the proximal end of the body , causing the cutting member to extend from the distal end of the body , and : a cup portion coupled to or formed as part of the body and attached to the body at a proximal end of the cup portion , a distal end of the cup portion extending from the body radially outward and toward the distal end of the body such that any section of the cup portion not attached to the body has a greater diameter than the body , and the cup portion further comprising an opening defined in the distal end of the cup portion , wherein the opening is larger than the body , and the body extends into the distal end of the cup portion ; wherein the cup portion has a transparent portion on one relative side of the cup portion for allowing a user of the device to see a piercing procedure, and a non-transparent portion on the other relative side of the cup portion for shielding the patient from seeing the piercing procedure.
A system for processing manometric measurements carried out by means of an anorectal probe , comprising one or more processing units, characterized in that said processing unit comprises: at least one acquisition module configured for acquiring management parameters of an anorectal manometry by an operator; a basal module configured for processing the manometric measurements acquired during the basal maneuver of the anorectal manometry, according to said management parameters; a squeeze module configured for processing the manometric measurements acquired during the squeeze maneuver according to said management parameters; an endurance module , configured for calculating the time interval between the instant when a maximum pressure value is measured during the squeeze maneuver, and the instant when the pressure measured falls below a squeeze threshold equal to or lower than ninety percent of said maximum value; a strain modulus configured for processing the manometric measurements acquired during the strain maneuver according to said management parameters; and at least one memory module configured for recording functions (F) and/or indexes calculated by said modules upon processing said measurements. at least one acquisition module configured for acquiring management parameters of an anorectal manometry by an operator; a basal module configured for processing the manometric measurements acquired during the basal maneuver of the anorectal manometry, according to said management parameters; a squeeze module configured for processing the manometric measurements acquired during the squeeze maneuver according to said management parameters; an endurance module , configured for calculating the time interval between the instant when a maximum pressure value is measured during the squeeze maneuver, and the instant when the pressure measured falls below a squeeze threshold equal to or lower than ninety percent of said maximum value; a strain modulus configured for processing the manometric measurements acquired during the strain maneuver according to said management parameters; and at least one memory module configured for recording functions (F) and/or indexes calculated by said modules upon processing said measurements.
A balloon including an apparatus for filling a balloon envelope of the balloon, the apparatus comprising: a tube configured to supply lift gas to the balloon envelope of the balloon; and a plug having a flange portion connected to a first end of the tube, wherein the plug includes one or more grooves and one or more sealing devices placed in the one or more grooves to form a seal with an interior surface of a fill port body of the balloon. a tube configured to supply lift gas to the balloon envelope of the balloon; and a plug having a flange portion connected to a first end of the tube, wherein the plug includes one or more grooves and one or more sealing devices placed in the one or more grooves to form a seal with an interior surface of a fill port body of the balloon.
Method for manufacturing of an electric actuator, which electric actuator consists of an electric actuator arrangement , being sensible to heat and/or generating heat and comprising one or several light emitting electric actuators, such as LEDs , the electric actuator being put together to form a uniform light source, and comprising a frame part (2; 2') that exists against a heat exchange surface (B) of the electric actuator arrangement , and wherein the light emitting electric actuators comprise thermosetting plastic, thermoplastic, vulcanized rubber and/or thermoplastic elastomer, characterized in that , in production of the electric actuator that is meant for use in LED-lighting/light production an electrical conductor arrangement and electronics (E), being coupled with the electric actuator arrangement to operate the same, are being processed in an integral manner inside the frame part (2; 2'), being formed by injection molding or die-casting thermosetting plastic, thermoplastic, vulcanized rubber and/or thermoplastic elastomer in connection with the electric actuator arrangement .
A process for extending the operating temperature range of gigabit plastic optical fiber, the process comprising: (a) placing a length of plastic optical fiber inside a thermal chamber , which plastic optical fiber has a core with dopant distributed in a polymer matrix such that the plastic optical fiber has a high-data-rate capability at a first temperature but not at a second temperature which is higher than the first temperature; (b) decreasing a temperature inside the thermal chamber until a third temperature lower than the first temperature is reached; (c) maintaining the third temperature inside the thermal chamber for a first period of time sufficient to cause the plastic optical fiber to develop the high-data-rate capability at the second temperature, wherein the polymer matrix of the length of gigabit plastic optical fiber is stabilized using thermal cooling so that diffusion of the dopant is blocked in a high-temperature environment; (d) increasing the temperature inside the thermal chamber until a fourth temperature lower than the first temperature and higher than the third temperature is reached; (e) maintaining the fourth temperature inside the thermal chamber during a second period of time subsequent to the first period of time; and (f) removing the length of plastic optical fiber from the thermal chamber. (a) placing a length of plastic optical fiber inside a thermal chamber , which plastic optical fiber has a core with dopant distributed in a polymer matrix such that the plastic optical fiber has a high-data-rate capability at a first temperature but not at a second temperature which is higher than the first temperature; (b) decreasing a temperature inside the thermal chamber until a third temperature lower than the first temperature is reached; (c) maintaining the third temperature inside the thermal chamber for a first period of time sufficient to cause the plastic optical fiber to develop the high-data-rate capability at the second temperature, wherein the polymer matrix of the length of gigabit plastic optical fiber is stabilized using thermal cooling so that diffusion of the dopant is blocked in a high-temperature environment; (d) increasing the temperature inside the thermal chamber until a fourth temperature lower than the first temperature and higher than the third temperature is reached; (e) maintaining the fourth temperature inside the thermal chamber during a second period of time subsequent to the first period of time; and (f) removing the length of plastic optical fiber from the thermal chamber.
An intervertebral implant assembly comprising: an implant body defining a first bone contacting surface and a second bone contacting surface , the first bone contacting surface spaced apart from the second bone contacting surface, wherein the implant body comprises at least one projection extending from at least one of the first or second bone contacting surfaces in a transverse direction, the at least one projection configured to be received in a cavity of a head of at least one bone anchor .
A brace for supporting a limb of a patient comprising: a brace body having an elongated shape that defines an axis, a proximal end and a distal end, the brace body having an inner surface that conforms to the limb of the patient and an outer surface; and elongated fenestrations formed in the brace body, each of the elongated fenestration having a length that is longer than a width and the lengths of the elongated fenestrations are substantially aligned with the axis of the brace body and the fenestrations are substantially parallel to each other; wherein the elongated fenestrations are arranged in a plurality of rows, characterized in that the elongated fenestrations in each of the rows are offset relative to the elongated fenestrations in adjacent rows with posts at ends of the elongated fenestrations in the rows intersecting middle sections of the elongated fenestrations in the adjacent rows, and in that the fenestrations each have two sides defined by two straight beams and two ends defined by two posts , wherein the posts are substantially shorter than the beams. a brace body having an elongated shape that defines an axis, a proximal end and a distal end, the brace body having an inner surface that conforms to the limb of the patient and an outer surface; and elongated fenestrations formed in the brace body, each of the elongated fenestration having a length that is longer than a width and the lengths of the elongated fenestrations are substantially aligned with the axis of the brace body and the fenestrations are substantially parallel to each other; wherein the elongated fenestrations are arranged in a plurality of rows, characterized in that the elongated fenestrations in each of the rows are offset relative to the elongated fenestrations in adjacent rows with posts at ends of the elongated fenestrations in the rows intersecting middle sections of the elongated fenestrations in the adjacent rows, and in that the fenestrations each have two sides defined by two straight beams and two ends defined by two posts , wherein the posts are substantially shorter than the beams.
Electronic method for extracting the amplitude E s and the phase Φ s of an electrical signal I det , detected by a sensor, in a synchronous detector, said electrical signal I det containing a modulated part I mod of the form I mod ∝E s f(t)*cos(Φs - Φ R (t)), wherein Φ R (t) and f(t) are two known temporal modulation functions, comprising the following steps: - multiplying said electrical signal by two reference signals C(t) and S(t) constructed using the known temporal modulation functions Φ R (t) and f(t); - integrating the two signals resulting from the two multiplications defined in the previous step during a time t int ; - determining the amplitude and the phase of said signal from the quantities X and Y resulting from the integrations defined in the previous step; wherein: - said electrical signal is multiplied by two orthogonal reference signals C(t) and S(t) that can decompose at the same set of frequencies as those present in I mod , namely: C oc cos (Φ R )*f(t) and S oc sin (Φ R )*f(t); in that - the temporal amplitude modulation function f(t) in question is either periodic, of the period 2π/Ω A during the integration time t int , wherein Ω A is the angular frequency, or constant during the integration time t int ; in that - the temporal phase modulation function Φ R (t) in question is periodic during the integration time t int , of the period 2π/Ω, wherein Ω is the frequency; and in that - the quantities X and Y are connected to Es*cos(Φ s ) and Es*sin(Φ s ) by two proportionality coefficients determined analytically or numerically. - multiplying said electrical signal by two reference signals C(t) and S(t) constructed using the known temporal modulation functions Φ R (t) and f(t); - integrating the two signals resulting from the two multiplications defined in the previous step during a time t int ; - determining the amplitude and the phase of said signal from the quantities X and Y resulting from the integrations defined in the previous step; - said electrical signal is multiplied by two orthogonal reference signals C(t) and S(t) that can decompose at the same set of frequencies as those present in I mod , namely: C oc cos (Φ R )*f(t) and S oc sin (Φ R )*f(t); in that - the temporal amplitude modulation function f(t) in question is either periodic, of the period 2π/Ω A during the integration time t int , wherein Ω A is the angular frequency, or constant during the integration time t int ; in that - the temporal phase modulation function Φ R (t) in question is periodic during the integration time t int , of the period 2π/Ω, wherein Ω is the frequency; and in that - the quantities X and Y are connected to Es*cos(Φ s ) and Es*sin(Φ s ) by two proportionality coefficients determined analytically or numerically.
An access point (105-a) for requesting channel feedback, comprising: a memory storing channel feedback instructions; and at least one processor coupled with the memory , wherein the at least one processor is configured to execute the channel feedback instructions to: generate a request for channel feedback, wherein the request includes an indicator specifying that the request uses a first format different from a second format, wherein the indicator corresponds to a bit of a station, STA, information field defined by the second format and wherein the indicator is set to a value that is inconsistent with association identifiers assigned to STAs that communicate using the second format; transmit the request for channel feedback to a STA (115-a), wherein the request further includes one or more parameters to indicate a portion of a channel bandwidth over which the channel feedback is requested; and receive channel feedback from the STA (115-a). a memory storing channel feedback instructions; and at least one processor coupled with the memory , wherein the at least one processor is configured to execute the channel feedback instructions to: generate a request for channel feedback, wherein the request includes an indicator specifying that the request uses a first format different from a second format, wherein the indicator corresponds to a bit of a station, STA, information field defined by the second format and wherein the indicator is set to a value that is inconsistent with association identifiers assigned to STAs that communicate using the second format; transmit the request for channel feedback to a STA (115-a), wherein the request further includes one or more parameters to indicate a portion of a channel bandwidth over which the channel feedback is requested; and receive channel feedback from the STA (115-a). generate a request for channel feedback, wherein the request includes an indicator specifying that the request uses a first format different from a second format, wherein the indicator corresponds to a bit of a station, STA, information field defined by the second format and wherein the indicator is set to a value that is inconsistent with association identifiers assigned to STAs that communicate using the second format; transmit the request for channel feedback to a STA (115-a), wherein the request further includes one or more parameters to indicate a portion of a channel bandwidth over which the channel feedback is requested; and receive channel feedback from the STA (115-a).