mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a blood pressure measurement, comprising: receiving, from a sensor, an electronic signal responsive to an occluding device applied to a patient; using processor equipment for: transforming the electronic signal into a transformed signal based at least in part on a continuous wavelet transformation, generating a scalogram based at least in part on the transformed signal, wherein the scalogram comprises 3-dimensional information, identifying, within the scalogram, a ridge indicative of the patient's blood flow as a function of time, and determining a blood pressure measurement based at least in part on the identified ridge; and outputting the blood pressure measurement to an output device. receiving, from a sensor, an electronic signal responsive to an occluding device applied to a patient; using processor equipment for: transforming the electronic signal into a transformed signal based at least in part on a continuous wavelet transformation, generating a scalogram based at least in part on the transformed signal, wherein the scalogram comprises 3-dimensional information, identifying, within the scalogram, a ridge indicative of the patient's blood flow as a function of time, and determining a blood pressure measurement based at least in part on the identified ridge; and transforming the electronic signal into a transformed signal based at least in part on a continuous wavelet transformation, generating a scalogram based at least in part on the transformed signal, wherein the scalogram comprises 3-dimensional information, identifying, within the scalogram, a ridge indicative of the patient's blood flow as a function of time, and determining a blood pressure measurement based at least in part on the identified ridge; and outputting the blood pressure measurement to an output device.
An umbilical, comprising: an outer insulating layer; and one or more DC power lines enclosed within the outer insulating layer and configured to transmit a DC voltage from a surface vessel to one or more subsea inverters to drive at least one AC powered subsea load; characterized in that the diameter of the or each DC power line is smaller relative to the diameter of an AC power line (94, 96, 98) rated for transmitting an AC voltage the same as the said DC voltage. an outer insulating layer; and one or more DC power lines enclosed within the outer insulating layer and configured to transmit a DC voltage from a surface vessel to one or more subsea inverters to drive at least one AC powered subsea load; characterized in that the diameter of the or each DC power line is smaller relative to the diameter of an AC power line (94, 96, 98) rated for transmitting an AC voltage the same as the said DC voltage.
A bicycle with a head parts assembly with a cable collecting device comprising two bowl assemblies disposed at two ends of a front frame pipe of the bicycle to collect brake cables, each of the bowl assemblies comprising a bowl, a bearing disposed between the bowl and the front vertical pipe of the bicycle, and a cover for fixing the bearing inside the bowl, wherein each bowl includes an assembling portion and an engaging portion tapering from the assembling portion, each assembling portion and each engaging portion define an inner space, each engaging portion is provided for engaging with one end of the front frame pipe, each assembling portion is an annular structure and defines an opening, an annular rib is formed on an inner surface of each assembling portion, each bearing is restricted in the respective opening by the respective cover and fixed between the respective annular rib and the respective cover, characterized in that each assembling portion is formed with a plurality of penetrating holes which penetrate the inner surface and an outer surface of the assembling portion and are located between the respective annular rib and the respective engaging portion, and the brake cables are inserted into the front frame pipe via the penetrating holes.
A method of using a controller that controls switches (SW1-SW5) in a forwarding network, wherein the forwarding network performs packet forwarding operations to forward network packets between end hosts (EH1-EH7) that are coupled to the forwarding network, the method comprising: with the controller, identifying a group of switch ports (P1, P2) on at least one of the switches in the forwarding network that is connected to a network traffic analysis network; and characterized by, with the controller, controlling a selected switch of the forwarding network to copy at least a portion of the network packets that are forwarded between the end hosts of the forwarding network to the identified group of switch ports; with the controller, controlling the selected switch to implement network forwarding paths by providing flow table entries (148, 149) for a forwarding table on the selected switch; and with the controller, controlling the selected switch to generate and forward mirrored network packets by providing flow table entries (144, 146) for a mirroring table that is separate from the forwarding table on the selected switch. with the controller, identifying a group of switch ports (P1, P2) on at least one of the switches in the forwarding network that is connected to a network traffic analysis network; and characterized by, with the controller, controlling a selected switch of the forwarding network to copy at least a portion of the network packets that are forwarded between the end hosts of the forwarding network to the identified group of switch ports; with the controller, controlling the selected switch to implement network forwarding paths by providing flow table entries (148, 149) for a forwarding table on the selected switch; and with the controller, controlling the selected switch to generate and forward mirrored network packets by providing flow table entries (144, 146) for a mirroring table that is separate from the forwarding table on the selected switch.
An endoscope system comprising: an endoscope in which an endoscope insertion portion that is inserted into a body extends from an endoscope operation portion that an operator controls; a working channel that opens to a distal end portion of the endoscope insertion portion and passes through the endoscope, with its proximal end portion opening to the endoscope operation portion; a tissue recovery device (54, 200) that is connected to a connection conduit that branches from a branch portion formed in the proximal end side of the working channel and is capable of trapping tissue that is drawn into the working channel; a suction conduit for suctioning tissue via the tissue recovery device (54, 200) and the working channel, being connected to the tissue recovery device (54, 200) and connected to a suction unit through the inside of the endoscope; and an attachment (53, 120, 130, 170) wherein a portion of the working channel that includes the branch portion and the distal end portion of the suction conduit that is connected to the tissue recovery device (54, 200) are formed to be removably attached as one piece with respect to the endoscope operation portion; characterized in that the tissue recovery device (54, 200) consists of a tissue recovery case and a tissue recovery filter that is detachably mounted on the tissue recovery case. an endoscope in which an endoscope insertion portion that is inserted into a body extends from an endoscope operation portion that an operator controls; a working channel that opens to a distal end portion of the endoscope insertion portion and passes through the endoscope, with its proximal end portion opening to the endoscope operation portion; a tissue recovery device (54, 200) that is connected to a connection conduit that branches from a branch portion formed in the proximal end side of the working channel and is capable of trapping tissue that is drawn into the working channel; a suction conduit for suctioning tissue via the tissue recovery device (54, 200) and the working channel, being connected to the tissue recovery device (54, 200) and connected to a suction unit through the inside of the endoscope; and an attachment (53, 120, 130, 170) wherein a portion of the working channel that includes the branch portion and the distal end portion of the suction conduit that is connected to the tissue recovery device (54, 200) are formed to be removably attached as one piece with respect to the endoscope operation portion; characterized in that the tissue recovery device (54, 200) consists of a tissue recovery case and a tissue recovery filter that is detachably mounted on the tissue recovery case.
A process for the continuous production of a nanoporous polymer foam, comprising the stages of a) forming a polymer melt from thermoplastic polymer and pressure build-up in a single-screw extruder with grooved cylinder or in a twinscrew extruder with downstream gear pump to a pressure in the range from 20 to 200 MPa, b) loading the polymer melt with a blowing agent in a zone following on from the pressure buildup and having mixing elements under a pressure and at a temperature at which the blowing agent is in the supercritical state, c) temperature-controlling the laden polymer melt via cooling elements to a temperature which lies in the range from 40°C under to 40°C over the glass transition temperature of the unladen polymer melt determinable by DSC according to DIN-ISO 11357-2 at a heating rate of 20 K/min, d) depressurizing the polymer melt laden in stage b) and temperature controlled in stage c) via a die or die plate at a depressurization rate in the range from 15,000 to 2,000,000 MPa/sec. a) forming a polymer melt from thermoplastic polymer and pressure build-up in a single-screw extruder with grooved cylinder or in a twinscrew extruder with downstream gear pump to a pressure in the range from 20 to 200 MPa, b) loading the polymer melt with a blowing agent in a zone following on from the pressure buildup and having mixing elements under a pressure and at a temperature at which the blowing agent is in the supercritical state, c) temperature-controlling the laden polymer melt via cooling elements to a temperature which lies in the range from 40°C under to 40°C over the glass transition temperature of the unladen polymer melt determinable by DSC according to DIN-ISO 11357-2 at a heating rate of 20 K/min, d) depressurizing the polymer melt laden in stage b) and temperature controlled in stage c) via a die or die plate at a depressurization rate in the range from 15,000 to 2,000,000 MPa/sec.
Device for contact-free transmission of energy for the charging of a battery of a motor vehicle with a receiver to receive energy from a transmitter for the transmission of energy, characterised in that the device features a measuring apparatus to measure the temperature between the transmitter and the receiver, and that the measuring apparatus features a plurality of sensors (8, 9, 10) which are arranged on the underbody of the motor vehicle, wherein two sensors (8,10) are arranged at the side of an intermediate space resulting during the charging between the receiver and the transmitter and direct their measurements into this intermediate space, and wherein the intermediate space in its horizontal extension contains the whole space to which the electromagnetic field extends with a field strength which may bring about an unacceptable heating of objects.
A vibrating flow meter or a vibrating densitometer comprising a case, wherein the case comprises: a first panel defined by at least a first edge and a second edge; and characterized by: one or more indentations formed in the first panel and including at least a portion extending completely from the first edge to the second edge, so as to increase the case's resonant frequencies.
A solid state lighting, SSL, device, comprising: an SSL structure having a first region and a second region laterally spaced apart from the first region, wherein the first and second regions of the SSL structure individually include a first semiconductor element, a second semiconductor element, and an active element between the first and second semiconductor elements (104, 108); an insulating material between the first and second regions, the insulating material electrically isolating the first and second regions; and a conductive material between the first and second regions and adjacent the insulating material, the conductive material electrically coupling the first and second regions in series, wherein the insulating material includes a first section on a first sidewall and a second section on a second sidewall, and wherein the first section covers the first sidewall, and wherein the second section only partially covers the second sidewall, wherein the conductive material is in direct contact with the first semiconductor element. an SSL structure having a first region and a second region laterally spaced apart from the first region, wherein the first and second regions of the SSL structure individually include a first semiconductor element, a second semiconductor element, and an active element between the first and second semiconductor elements (104, 108); an insulating material between the first and second regions, the insulating material electrically isolating the first and second regions; and a conductive material between the first and second regions and adjacent the insulating material, the conductive material electrically coupling the first and second regions in series, wherein the insulating material includes a first section on a first sidewall and a second section on a second sidewall, and wherein the first section covers the first sidewall, and wherein the second section only partially covers the second sidewall, wherein the conductive material is in direct contact with the first semiconductor element.
A phase-control switchgear (50, 50A, 50B) provided to a multi-phase or single-phase AC power transmission line (25, 125) connecting between first and second buses (11, 21, 111, 121), first and second generators (10, 20, 110, 120) being connected to the first and second buses (11, 21, 111, 121), respectively, the phase-control switchgear comprising: - a circuit breaker (30, 30A) adapted to break a current flowing through the power transmission line (25, 125); - a phase difference detection unit adapted to detect a phase difference between a voltage of the first bus (11, 111) and a voltage of the second bus (21, 121), at a plurality of time points; - a storage unit adapted to store the phase differences at the plurality of time points detected by the phase difference detection unit; and - a control unit, wherein, when the control unit receives a breaking instruction for the circuit breaker (30, 30A), the control unit is adapted to estimate a breaking time point at which the phase difference between the voltage of the first bus (11, 111) and the voltage of the second bus (21, 121) will be a predetermined phase difference, based on the phase differences at the plurality of time points stored in the storage unit, and is adapted to open the circuit breaker (30, 30A) to break the current at the breaking time point, wherein, if the phase-control switchgear (50, 50A) is provided to a multi-phase AC power transmission line, the voltage of the first bus is the voltage of a specific phase of the first bus and the voltage of the second bus is the voltage of one of a plurality of phases of the second bus that is identical to the specific phase. - a circuit breaker (30, 30A) adapted to break a current flowing through the power transmission line (25, 125); - a phase difference detection unit adapted to detect a phase difference between a voltage of the first bus (11, 111) and a voltage of the second bus (21, 121), at a plurality of time points; - a storage unit adapted to store the phase differences at the plurality of time points detected by the phase difference detection unit; and - a control unit, wherein, when the control unit receives a breaking instruction for the circuit breaker (30, 30A), the control unit is adapted to estimate a breaking time point at which the phase difference between the voltage of the first bus (11, 111) and the voltage of the second bus (21, 121) will be a predetermined phase difference, based on the phase differences at the plurality of time points stored in the storage unit, and is adapted to open the circuit breaker (30, 30A) to break the current at the breaking time point, wherein, if the phase-control switchgear (50, 50A) is provided to a multi-phase AC power transmission line, the voltage of the first bus is the voltage of a specific phase of the first bus and the voltage of the second bus is the voltage of one of a plurality of phases of the second bus that is identical to the specific phase.
Method for activating a drive system of a motor vehicle with a supercharged internal combustion engine, wherein following the fulfilment (S1, S2) of at least one activation condition (S1, S2) for the activation of the overspeed protection of the drive system, the overspeed protection is activated, whereby a generator mode of an electrified exhaust gas turbocharger is started, characterized in that an activation condition for the activation of the overspeed protection is fulfilled if there is a malfunction of an exhaust gas recirculation valve and/or of a wastegate valve.
Grease composition, comprising (a) 50-96% by weight of at least one fluorous oil with a viscosity of from 500 to 1500 mm 2 /s at 40°C, which is selected from perfluorous polyalkyl ether oils, perflurous silicone oils and mixtures thereof; (b) 0.9-20% by weight of boron nitride and (c) 3-25% by weight of at least one binder, wherein the binder is organically modified bentonite or a mixture of organically modified bentonite with at least one further binder, which is selected from alkali metal phosphates, aluminium phosphates, alkali metal silicates, earth alkali metal silicates, aluminium silicates, earth alkali metal carbonates, silicon dioxide, titanium dioxide, aluminium oxide and mixtures thereof, wherein the further binder is contained in an amount of 0.1 to 50% by weight based on the amount of organically modified bentonite. (a) 50-96% by weight of at least one fluorous oil with a viscosity of from 500 to 1500 mm 2 /s at 40°C, which is selected from perfluorous polyalkyl ether oils, perflurous silicone oils and mixtures thereof; (b) 0.9-20% by weight of boron nitride and (c) 3-25% by weight of at least one binder, wherein the binder is organically modified bentonite or a mixture of organically modified bentonite with at least one further binder, which is selected from alkali metal phosphates, aluminium phosphates, alkali metal silicates, earth alkali metal silicates, aluminium silicates, earth alkali metal carbonates, silicon dioxide, titanium dioxide, aluminium oxide and mixtures thereof, wherein the further binder is contained in an amount of 0.1 to 50% by weight based on the amount of organically modified bentonite.
An enrollment method for bitstring generation by an integrated circuit, comprising the step of: (a) measuring a plurality of launch-capture interval path timing values for a physically unclonable function; (b) selecting randomly two path timing values of the physically unclonable function; (c) calculating a difference value between the two path timing values; (d) classifying the difference value as 'invalid' if it is less than a margin threshold value and 'valid' if it is greater than a margin threshold value, wherein the margin threshold value is equal to a worst case temperature-voltage noise level, the worst case being the maximum temperature-voltage noise value produced by the integrated circuit; (e) constructing a helper bitstring consisting of the 'valid' difference values; (f) generating a response bitstring by assigning a '0' bit when the difference value is positive and a '1' bit when the difference value is negative; (g) performing steps (a) - (f) at two or more supply voltage regulators to obtain two or more response bitstrings; (h) identifying inconsistencies in bits of the two or more response bitstrings using the helper bitstring; and (i) removing the inconsistent bits in each of the two or more response bitstrings to reduce the number of bit flips. (a) measuring a plurality of launch-capture interval path timing values for a physically unclonable function; (b) selecting randomly two path timing values of the physically unclonable function; (c) calculating a difference value between the two path timing values; (d) classifying the difference value as 'invalid' if it is less than a margin threshold value and 'valid' if it is greater than a margin threshold value, wherein the margin threshold value is equal to a worst case temperature-voltage noise level, the worst case being the maximum temperature-voltage noise value produced by the integrated circuit; (e) constructing a helper bitstring consisting of the 'valid' difference values; (f) generating a response bitstring by assigning a '0' bit when the difference value is positive and a '1' bit when the difference value is negative; (g) performing steps (a) - (f) at two or more supply voltage regulators to obtain two or more response bitstrings; (h) identifying inconsistencies in bits of the two or more response bitstrings using the helper bitstring; and (i) removing the inconsistent bits in each of the two or more response bitstrings to reduce the number of bit flips.
A structure comprising a partly assembled wind turbine in the form of a structure comprising a wind turbine tower (201, 301, 401), a nacelle (202, 302, 402) arranged thereon and a vibration damper (306, 403) attached to the nacelle (202, 302) for damping vibrations of the combined wind turbine tower (201, 301, 401)and nacelle (202, 302, 402) within a selected frequency range, characterized in that the vibration damper (306, 403) is operatively connected to a main shaft of the nacelle (202, 302, 402).
A method of determining PTEN copy number in a sample from a subject, comprising: simultaneously amplifying three or more PTEN loci and two or more reference genes by digital PCR; calculating a ratio of PTEN amplification to reference gene amplification; and determining a PTEN copy number for the sample based on the ratio. simultaneously amplifying three or more PTEN loci and two or more reference genes by digital PCR; calculating a ratio of PTEN amplification to reference gene amplification; and determining a PTEN copy number for the sample based on the ratio.
A catheter system actuatable to a deployed state, comprising: a catheter body comprising a lumen; a dilator positioned at least partially within the lumen, a distal end of the dilator releasably connected to a distal tip of the catheter body, the dilator being retractable to expand and invert the distal tip and form a funnel shape in the deployed state, the distal tip comprises: a proximal segment; and a distal segment extended from the proximal segment and being substantially flexible, a proximal end of the distal segment extended from the proximal segment, the system further comprising: a pull ring adjacent and/or connected to a distal end of the distal segment, characterised in that the proximal end of the distal tip and the pull ring each comprise mating surfaces configured to snap lock together. a catheter body comprising a lumen; a dilator positioned at least partially within the lumen, a distal end of the dilator releasably connected to a distal tip of the catheter body, the dilator being retractable to expand and invert the distal tip and form a funnel shape in the deployed state, the distal tip comprises: a proximal segment; and a distal segment extended from the proximal segment and being substantially flexible, a proximal end of the distal segment extended from the proximal segment, the system further comprising: a proximal segment; and a distal segment extended from the proximal segment and being substantially flexible, a proximal end of the distal segment extended from the proximal segment, the system further comprising: a pull ring adjacent and/or connected to a distal end of the distal segment, characterised in that the proximal end of the distal tip and the pull ring each comprise mating surfaces configured to snap lock together.