mhurhangee/ep-ind-claims huggingface dataset:
A method for pairing two or more smart-home devices (400, 1002) with a user account, comprising: establishing first wireless communications with a first smart-home device, wherein the first wireless communications use a first wireless protocol, and wherein the first smart-home device has previously been paired with the user account; transmitting, to a first smart-home device, using the first wireless protocol, a transmission that instructs the first smart-home device to establish second wireless communication between the first smart-home device and a second smart-home device, wherein the second wireless communication established between the first smart-home device and the second smart-home device uses a second wireless protocol; and transmitting, to the first smart-home device, using the first wireless protocol, network credentials (1110, 1112) for the second smart-home device to join the first wireless protocol, wherein the credentials (1110, 1112) are sent from the first smart-home device to the second smart-home device using the second wireless protocol; whereby a new pairing between the second smart-home device and the user account is established using the first wireless protocol. establishing first wireless communications with a first smart-home device, wherein the first wireless communications use a first wireless protocol, and wherein the first smart-home device has previously been paired with the user account; transmitting, to a first smart-home device, using the first wireless protocol, a transmission that instructs the first smart-home device to establish second wireless communication between the first smart-home device and a second smart-home device, wherein the second wireless communication established between the first smart-home device and the second smart-home device uses a second wireless protocol; and transmitting, to the first smart-home device, using the first wireless protocol, network credentials (1110, 1112) for the second smart-home device to join the first wireless protocol, wherein the credentials (1110, 1112) are sent from the first smart-home device to the second smart-home device using the second wireless protocol; whereby a new pairing between the second smart-home device and the user account is established using the first wireless protocol.
Locking device for sliding gate, comprising: • a housing, • a latch bolt forming a hook intended to be engaged in an orifice of a striker plate, and having an end portion protruding in a first direction outside the housing, and • an actuator (51, 510, 55) housed in the housing and configured to displace the latch bolt in translation in the first direction: ∘ from a locked position wherein the end portion is able to abut against the striker plate in order to prevent the sliding of the gate when the hook is engaged in the orifice, and ∘ towards an unlocked position wherein the end portion is no longer in abutment against the striker plate in order to authorise the sliding of the gate, the device being characterised in that it further comprises a return element housed in the housing and configured to urge the latch bolt towards the locked position. • a housing, • a latch bolt forming a hook intended to be engaged in an orifice of a striker plate, and having an end portion protruding in a first direction outside the housing, and • an actuator (51, 510, 55) housed in the housing and configured to displace the latch bolt in translation in the first direction: ∘ from a locked position wherein the end portion is able to abut against the striker plate in order to prevent the sliding of the gate when the hook is engaged in the orifice, and ∘ towards an unlocked position wherein the end portion is no longer in abutment against the striker plate in order to authorise the sliding of the gate, the device being characterised in that it further comprises a return element housed in the housing and configured to urge the latch bolt towards the locked position. ∘ from a locked position wherein the end portion is able to abut against the striker plate in order to prevent the sliding of the gate when the hook is engaged in the orifice, and ∘ towards an unlocked position wherein the end portion is no longer in abutment against the striker plate in order to authorise the sliding of the gate, the device being characterised in that it further comprises a return element housed in the housing and configured to urge the latch bolt towards the locked position.
An ischemic cardiopathy diagnosis assistance system configured to measure intracoronary pressure in a proximal stenotic segment upstream of a stenotic lesion site in a coronary artery of a patient and intracoronary pressure in a distal stenotic segment on a downstream side and to find a pressure ratio between the proximal stenotic segment and distal stenotic segment as a diagnosis index of ischemic cardiopathy, the assistance system comprising: pressure data acquisition means for acquiring pressure data including proximal pressure, which is pressure in the proximal stenotic segment, and distal pressure, which is pressure in the distal stenotic segment; intracoronary electrocardiogram data acquisition means for acquiring intracoronary electrocardiogram data made up of a local intracoronary artery electrocardiogram in a neighborhood of the distal stenotic segment; and computational processing means for finding the pressure ratio based on the data acquired by the pressure data acquisition means and the data acquired by the intracoronary electrocardiogram data acquisition means, wherein the computational processing means includes a pressure data extraction unit configured to temporally associate the pressure data with the intracoronary electrocardiogram data, estimates an analysis period during which vascular resistance remains stably low from a waveform of the intracoronary electrocardiogram data, and extract the pressure data of the analysis period, and a pressure ratio determination unit configured to find the pressure ratio from the pressure data extracted by the pressure data extraction unit. pressure data acquisition means for acquiring pressure data including proximal pressure, which is pressure in the proximal stenotic segment, and distal pressure, which is pressure in the distal stenotic segment; intracoronary electrocardiogram data acquisition means for acquiring intracoronary electrocardiogram data made up of a local intracoronary artery electrocardiogram in a neighborhood of the distal stenotic segment; and computational processing means for finding the pressure ratio based on the data acquired by the pressure data acquisition means and the data acquired by the intracoronary electrocardiogram data acquisition means, wherein the computational processing means includes a pressure data extraction unit configured to temporally associate the pressure data with the intracoronary electrocardiogram data, estimates an analysis period during which vascular resistance remains stably low from a waveform of the intracoronary electrocardiogram data, and extract the pressure data of the analysis period,
DC voltage power source provided with two separate output terminals (P-N), characterized in that it comprises: - first electrochemical cells electrically connected in series; - a DC/DC converter connected in series to said first electrochemical cells, such that the potential difference between said output terminals (P-N) of the voltage source corresponds to the cumulation of the potential difference at the terminals of the series connection of the electrochemical cells and the potential difference at the terminals of one output interface of the converter; - a secondary DC voltage source applying its potential difference to one input interface of the converter. - first electrochemical cells electrically connected in series; - a DC/DC converter connected in series to said first electrochemical cells, such that the potential difference between said output terminals (P-N) of the voltage source corresponds to the cumulation of the potential difference at the terminals of the series connection of the electrochemical cells and the potential difference at the terminals of one output interface of the converter; - a secondary DC voltage source applying its potential difference to one input interface of the converter.
A generator comprising: a main rotor shaft which defines main shaft splines; a disconnect shaft which defines disconnect shaft splines and disconnect jaws, said disconnect shaft splines mating with said main shaft splines; a drive gear mounted to said main rotor shaft through a drive gear bearing; an input jaw plate keyed to said drive gear for rotation therewith, said input jaw plate defining input jaws which selectively mesh with said disconnect jaws, said disconnect shaft being axially movable in response to a disconnect system which axially separates said input jaws and said disconnect jaws to permit relative rotation between said main rotor shaft and said drive gear through said drive gear bearing. a main rotor shaft which defines main shaft splines; a disconnect shaft which defines disconnect shaft splines and disconnect jaws, said disconnect shaft splines mating with said main shaft splines; a drive gear mounted to said main rotor shaft through a drive gear bearing; an input jaw plate keyed to said drive gear for rotation therewith, said input jaw plate defining input jaws which selectively mesh with said disconnect jaws, said disconnect shaft being axially movable in response to a disconnect system which axially separates said input jaws and said disconnect jaws to permit relative rotation between said main rotor shaft and said drive gear through said drive gear bearing.
A heat dissipation sheet, which is prepared by molding a thermally conductive resin composition prepared by blending an inorganic filler component and a resin component, the inorganic filler component including a first inorganic filler and a second inorganic filler, provided that particle size distribution of the inorganic filler component includes a first maximum point attributable to the first inorganic filler and a second maximum point attributable to the second inorganic filler; the particle size at the first maximum point is 15 μm or more; the particle size at the second maximum point is 30% or more and 2/3 or less the particle size at the first maximum point; and an accumulated amount of the frequency between the peak start and the peak end of the peak having the first maximum point is 70% or more, an accumulated amount of the frequency between the peak start and the peak end of the peak having the second maximum point is 25% or more; and which has a surface roughness of from 1.5 to 3.0 pm and a thickness of 0.2 mm or less. which is prepared by molding a thermally conductive resin composition prepared by blending an inorganic filler component and a resin component, the inorganic filler component including a first inorganic filler and a second inorganic filler, provided that particle size distribution of the inorganic filler component includes a first maximum point attributable to the first inorganic filler and a second maximum point attributable to the second inorganic filler; the particle size at the first maximum point is 15 μm or more; the particle size at the second maximum point is 30% or more and 2/3 or less the particle size at the first maximum point; and an accumulated amount of the frequency between the peak start and the peak end of the peak having the first maximum point is 70% or more, an accumulated amount of the frequency between the peak start and the peak end of the peak having the second maximum point is 25% or more; and which has a surface roughness of from 1.5 to 3.0 pm and a thickness of 0.2 mm or less.
A sliding member comprising: a base member made of a steel material having a thermal conductivity of at least 30 W/m·K; and a hard coating formed on the base member and having a surface serving at least as a sliding surface, wherein the hard coating has a Young's modulus having a distribution to increase first in a depth direction directed from an interface between the hard coating and the base member to the surface, to become maximum at a predetermined depth, and then to decrease in the depth direction directed from the interface to the surface, the hard coating includes a first coating, a second coating, a third coating, a fourth coating, and a fifth coating formed in the mentioned order from the interface to the surface, the first and fifth coatings each have a constant Young's modulus within a range of 150 GPa to 250 GPa, the third coating has a constant Young's modulus within a range of 400 GPa to 600 GPa, the second coating has a Young's modulus having a distribution to gradually increase from the Young's modulus of the first coating toward the Young's modulus of the third coating, and the fourth coating has a Young's modulus having a distribution to gradually decrease from the Young's modulus of the third coating toward the Young's modulus of the fifth coating, and a total thickness of the hard coating is 3 μm to 30 μm. a base member made of a steel material having a thermal conductivity of at least 30 W/m·K; and a hard coating formed on the base member and having a surface serving at least as a sliding surface, wherein the hard coating has a Young's modulus having a distribution to increase first in a depth direction directed from an interface between the hard coating and the base member to the surface, to become maximum at a predetermined depth, and then to decrease in the depth direction directed from the interface to the surface, the hard coating includes a first coating, a second coating, a third coating, a fourth coating, and a fifth coating formed in the mentioned order from the interface to the surface, the first and fifth coatings each have a constant Young's modulus within a range of 150 GPa to 250 GPa, the third coating has a constant Young's modulus within a range of 400 GPa to 600 GPa, the second coating has a Young's modulus having a distribution to gradually increase from the Young's modulus of the first coating toward the Young's modulus of the third coating, and the fourth coating has a Young's modulus having a distribution to gradually decrease from the Young's modulus of the third coating toward the Young's modulus of the fifth coating, and a total thickness of the hard coating is 3 μm to 30 μm.
Circuitry for a converter, with a direct-current voltage intermediate circuit which comprises at least one intermediate circuit capacitor connected between a first current path and a second current path of the direct-current voltage intermediate circuit, and with a compensation circuit comprising a voltage source for coupling a compensation voltage (U k) into the first or second current path (18, 19) of the direct-current voltage intermediate circuit in series with the intermediate circuit capacitor and with a network-side current converter (12, 112) which is connected to the direct-current voltage intermediate circuit, the voltage source being in the form of at least one compensation capacitor, characterized in that the network-side current converter is configured as feed-feedback unit (12, 112) clocked with the basic frequency.
An offloading policy negotiation method, comprising: sending, by a user equipment, UE, an offloading policy to a core network device, wherein the offloading policy comprises at least one of the following: a default access indication or at least one routing rule; and receiving and storing, by the UE, an acknowledged offloading policy returned for the offloading policy by the core network device, and transmitting a data flow based on the acknowledged offloading policy; wherein the routing rule comprises a routing access technology, flow description information, a negotiation indication, and first routing rule identifier information, wherein the first routing rule identifier information is at least one of a rule name or a rule priority; and wherein the negotiation indication is used to identify permission of the UE for modifying the routing rule, and a value is a "negotiation allowed" identifier or a "negotiation forbidden" identifier, wherein when the value of the negotiation indication is the "negotiation allowed" identifier, it indicates that the UE selects the routing access technology in the routing rule or another access technology, or when the value of the negotiation indication is the "negotiation forbidden" identifier, it indicates that the UE selects the routing access technology in the routing rule and that the routing rule to which the negotiation indication belongs is a nonnegotiable routing rule. sending, by a user equipment, UE, an offloading policy to a core network device, wherein the offloading policy comprises at least one of the following: a default access indication or at least one routing rule; and receiving and storing, by the UE, an acknowledged offloading policy returned for the offloading policy by the core network device, and transmitting a data flow based on the acknowledged offloading policy; wherein the routing rule comprises a routing access technology, flow description information, a negotiation indication, and first routing rule identifier information, wherein the first routing rule identifier information is at least one of a rule name or a rule priority; and wherein the negotiation indication is used to identify permission of the UE for modifying the routing rule, and a value is a "negotiation allowed" identifier or a "negotiation forbidden" identifier, wherein when the value of the negotiation indication is the "negotiation allowed" identifier, it indicates that the UE selects the routing access technology in the routing rule or another access technology, or when the value of the negotiation indication is the "negotiation forbidden" identifier, it indicates that the UE selects the routing access technology in the routing rule and that the routing rule to which the negotiation indication belongs is a nonnegotiable routing rule.
An endoscope apparatus comprising: a light source (20R, 20G, 20B), light-guiding means that guides illumination light emitted from the light source (20R, 20G, 20B) to the distal end of an inserted portion; a scanning means that makes the light-guiding means vibrate with a predetermined period, thus two-dimensionally scanning the illumination light emitted from the inserted portion on an observation subject; an image-acquisition means that receives return light of the illumination light coming from the observation subject and that generates an image signal based on a position scanned by the scanning means and an intensity of the return light; and a light-source control means that controls the light source (20R, 20G, 20B) so as to change the intensity of the illumination light emitted from the inserted portion in accordance with an angle formed between the longitudinal direction of the inserted portion and a direction in which the illumination light is emitted toward the observation subject; characterized in that the light-source control means controls the light source (20R, 20G, 20B) so that an intensity I1(θ) of the illumination light emitted from the light source (20R, 20G, 20B) satisfies Expressions and below: {Eq. 1} I 1 θ = Af θ 1 − sin 2.5 θ ≤ f θ ≤ 1 − sin 7 θ where θ is an angle formed between the longitudinal direction of the inserted portion and the emitting direction of the illumination light emitted from the inserted portion, and A is the intensity of illumination light emitted from the inserted portion when θ = 0. a light source (20R, 20G, 20B), light-guiding means that guides illumination light emitted from the light source (20R, 20G, 20B) to the distal end of an inserted portion; a scanning means that makes the light-guiding means vibrate with a predetermined period, thus two-dimensionally scanning the illumination light emitted from the inserted portion on an observation subject; an image-acquisition means that receives return light of the illumination light coming from the observation subject and that generates an image signal based on a position scanned by the scanning means and an intensity of the return light; and a light-source control means that controls the light source (20R, 20G, 20B) so as to change the intensity of the illumination light emitted from the inserted portion in accordance with an angle formed between the longitudinal direction of the inserted portion and a direction in which the illumination light is emitted toward the observation subject; characterized in that the light-source control means controls the light source (20R, 20G, 20B) so that an intensity I1(θ) of the illumination light emitted from the light source (20R, 20G, 20B) satisfies Expressions and below: {Eq. 1} I 1 θ = Af θ 1 − sin 2.5 θ ≤ f θ ≤ 1 − sin 7 θ where θ is an angle formed between the longitudinal direction of the inserted portion and the emitting direction of the illumination light emitted from the inserted portion, and A is the intensity of illumination light emitted from the inserted portion when θ = 0.
A zwitterionic polymer brush based on hyaluronic acid and 2-methacryloyloxyethyl phosphorylcholine, characterized by: having the following structure: wherein n is an integer from 60-150, x is an integer from 589-686, and y is an integer from 125-230.
A compensating chuck for power clamping (1, 101), having a housing (3, 103), in which - a drive unit with a cable guide which is movable in the direction of a clamping axis is arranged, and - two pairs of mutually diametrically opposite base jaws (7a, c; 7b, d) are arranged, wherein - the base jaws (7a-d) are guided in a movable manner, preferably radially, in the housing, substantially perpendicularly to the clamping axis, and - the drive unit is set up to convert the movement of the cable guide into the movement of the base jaws (7a-d), characterized in that, for each base jaw (7a-d), the drive unit has a driver (19a-d), which is in engagement with the base jaw, for force transmission to the base jaws and for realizing a compensating movement of the base jaws with respect to one another, which can be moved on a circular path about the clamping axis with a movement component. - a drive unit with a cable guide which is movable in the direction of a clamping axis is arranged, and - two pairs of mutually diametrically opposite base jaws (7a, c; 7b, d) are arranged, wherein - the base jaws (7a-d) are guided in a movable manner, preferably radially, in the housing, substantially perpendicularly to the clamping axis, and - the drive unit is set up to convert the movement of the cable guide into the movement of the base jaws (7a-d),
A gyrolaser comprising an optical block, said optical block comprising a glass-ceramic first material comprising apertures, electrodes (5a; 5b) placed in the apertures of the optical block and seals comprising indium of a first redox potential (E° 1) ensuring the hermeticity of the optical block at the location of the apertures, characterised in that the gyrolaser further comprises, in contact with the seals, at least one sacrificial electrode comprising a second material of a second redox potential (E° 2), the second redox potential (E° 2) being lower than the first redox potential (E° 1), the sacrificial electrode being neither placed between the optical block and the seals nor between the electrodes (5a; 5b) and the seals.
A left atrial appendage occluder comprising a sealing disc (100, 400) and a fixing bracket (200, 500) which is connected to the sealing disc (100, 400), wherein the fixing bracket (200, 500) comprises a connecting portion connected to the sealing disc (100, 400), and a plurality of supports (220, 520) extending out from the connecting portion in a distal direction and being bent in a proximal direction to form a plurality of spaced suspended supporting segments, the supporting segments being provided with at least one anchoring barb (223, 523) facing the sealing disc (100, 400), characterized in that the left atrial appendage occluder further comprises a thin film (300, 600), all the supports (220, 520) being connected one after another through the thin film (300, 600).