mhurhangee/ep-ind-claims huggingface dataset:
Cable protection cover configured to be attached to a housing of an electrical device, the cable protection cover comprising a housing attachment section adapted for securing the cable protection cover to the housing, the housing attachment section further being adapted to receive an electric connector attached to the housing and including a connector lock, the connector lock having at least one locking member adapted to restrain the electric connector in its position attached to the housing at least in a pull-out direction of the electric connector, the cable protection cover characterized in that the at least one locking member of the connector lock protrudes inwards perpendicular to the pull-out direction thereby further establishing a positive fit against the pull-out direction between the cable protection cover and the electrical connector. the cable protection cover comprising a housing attachment section adapted for securing the cable protection cover to the housing, the housing attachment section further being adapted to receive an electric connector attached to the housing and including a connector lock, the connector lock having at least one locking member adapted to restrain the electric connector in its position attached to the housing at least in a pull-out direction of the electric connector, the cable protection cover characterized in that the at least one locking member of the connector lock protrudes inwards perpendicular to the pull-out direction thereby further establishing a positive fit against the pull-out direction between the cable protection cover and the electrical connector.
A simple auto electronic tourniquet comprising: a wrapping member adapted to be wrapped around any of the extremities of the human body and a controller configured to control pressures applied to the extremity by the wrapping member; the controller comprising a diastolic blood pressure detecting circuit and a pressure setting and maintenance circuit; the diastolic blood pressure detecting circuit configured to detect changes of the biological signal concerning the diastolic blood pressure occurring in the extremity by controlling increase and decrease of pressures within the wrapping member; the pressure setting and maintenance circuit configured to set the pressures of the wrapping member at the time when changes of the biological signal are detected by the diastolic blood pressure detecting circuit as target pressures and further configured to control the wrapping member so as to make its pressures fall within the range similar to the target pressures, characterized in that the controller is provided on the wrapping member and comprises a venipuncturability informing circuit, which, after a predetermined time from the point when a target pressure is set for the first time, outputs to a informing means (26; 28A, 28B) a signal informing of venipuncture being possible. a wrapping member adapted to be wrapped around any of the extremities of the human body and a controller configured to control pressures applied to the extremity by the wrapping member; the controller comprising a diastolic blood pressure detecting circuit and a pressure setting and maintenance circuit; the diastolic blood pressure detecting circuit configured to detect changes of the biological signal concerning the diastolic blood pressure occurring in the extremity by controlling increase and decrease of pressures within the wrapping member; the pressure setting and maintenance circuit configured to set the pressures of the wrapping member at the time when changes of the biological signal are detected by the diastolic blood pressure detecting circuit as target pressures and further configured to control the wrapping member so as to make its pressures fall within the range similar to the target pressures, characterized in that the controller is provided on the wrapping member and comprises a venipuncturability informing circuit, which, after a predetermined time from the point when a target pressure is set for the first time, outputs to a informing means (26; 28A, 28B) a signal informing of venipuncture being possible.
A sensor device (100A, 100B, 100C, 200) for providing marine vessel data of a marine vessel, the sensor device (100A, 100B, 100C, 200) comprising: a receiver (106, 126, 208) for receiving at least position and time information relating to the marine vessel; at least one sensor (104, 124, 204) for measuring marine vessel performance data, the at least one sensor (104, 124, 204) configured to measure the marine vessel performance data by sensing the motions and vibrations of the marine vessel via a hull structure of the marine vessel when the sensor device (100A, 100B, 100C, 200) is affixed to the hull structure; at least one processor (102, 120, 202) configured to perform frequency analysis of the measured marine vessel performance data and to generate marine vessel data based on the received at least position and time information and the frequency analyzed marine vessel performance data; and a data interface (108, 128) enabling transmission of the generated marine vessel data to an external device; wherein the sensor device (100A, 100B, 100C, 200) including the receiver (106, 126, 208), the at least one sensor (104, 124, 204) and the data interface (108, 128) is configured to provide the marine vessel data without integration to the marine vessel's information systems when the sensor device (100A, 100B, 100C, 200) is affixed to the hull structure of the marine vessel. a receiver (106, 126, 208) for receiving at least position and time information relating to the marine vessel; at least one sensor (104, 124, 204) for measuring marine vessel performance data, the at least one sensor (104, 124, 204) configured to measure the marine vessel performance data by sensing the motions and vibrations of the marine vessel via a hull structure of the marine vessel when the sensor device (100A, 100B, 100C, 200) is affixed to the hull structure; at least one processor (102, 120, 202) configured to perform frequency analysis of the measured marine vessel performance data and to generate marine vessel data based on the received at least position and time information and the frequency analyzed marine vessel performance data; and a data interface (108, 128) enabling transmission of the generated marine vessel data to an external device; wherein the sensor device (100A, 100B, 100C, 200) including the receiver (106, 126, 208), the at least one sensor (104, 124, 204) and the data interface (108, 128) is configured to provide the marine vessel data without integration to the marine vessel's information systems when the sensor device (100A, 100B, 100C, 200) is affixed to the hull structure of the marine vessel.
A three-piece oil scraper piston ring, comprising an upper, disc-shaped scraping ring, a lower, disc-shaped stabilising ring, and a circular expander which has projections protruding in the axial direction on an inner face, the circular expander being arranged between the upper scraping ring and the lower stabilising ring, the projections each bearing inwardly against an inner face of the scraping ring and against an inner face of the stabilising ring, respectively, characterised in that an outer radius of the scraping ring is greater than an outer radius of the lower stabilising ring.
A vehicle steering wheel with a steering wheel skeleton which comprises a steering wheel hub, a steering wheel rim and steering wheel spokes (4, 5, 6) which connect the steering wheel rim with the steering wheel hub, wherein the steering wheel hub includes a steering wheel fastening region for fastening the vehicle steering wheel to a steering shaft of a vehicle, and wherein in the vehicle steering wheel a gas bag is mounted, which is arranged in the vehicle steering wheel in radial direction exclusively outside the steering wheel hub and/or eccentrically to the steering wheel hub, characterized in that the steering wheel skeleton forms a receptacle for the gas bag, in which the gas bag is arranged.
A transmission method for transmitting emergency alert information, the transmission method comprising: generating (i) a message describing an emergency alert and (ii) a Uniform Resource Locator, URL, indicating a location of a detailed content of the emergency alert; storing the message and the URL into the emergency alert information; and transmitting the emergency alert information by broadcast; wherein the transmission method further comprises: if a target area of the emergency alert is a part of a broadcast area, generating a location indicating the target area and storing the location into the emergency alert information, and the emergency alert information without the location indicates that the target area is all area within the broadcast area. generating (i) a message describing an emergency alert and (ii) a Uniform Resource Locator, URL, indicating a location of a detailed content of the emergency alert; storing the message and the URL into the emergency alert information; and transmitting the emergency alert information by broadcast; wherein the transmission method further comprises: if a target area of the emergency alert is a part of a broadcast area, generating a location indicating the target area and storing the location into the emergency alert information, and the emergency alert information without the location indicates that the target area is all area within the broadcast area.
Forming section for a multi-ply fiber web comprising at least one twin-wire forming part formed between a wire for the bottom layer of the multi-ply fiber web and a wire (20; 120) for the top layer of the multi-ply fiber web, in which twin-wire part the layers for the multi-ply fiber web are united and the layers of the multi-ply fiber web are joined, characterized in that the forming section comprises a sleeve roll, which comprises a stationary support shaft, an belt loop, which is led to circle around the stationary support shaft, that the sleeve roll further comprises at least one curvilinear dewatering zone consisting of two partial curves such that the radius of curvature of a first partial curve is greater than the radius of curvature of a second partial curve following the first partial curve in the travel direction of belt loop, for joining layers of the multi-ply fiber web in a sleeve roll nip between the sleeve roll and the wire (10; 20; 120).
Method for treating a raw gas mixture which contains harmful sulphurous compounds, comprising i) introducing into a first unit: - a raw gas mixture containing harmful sulphurous compounds, and - an acidic aqueous medium containing nitrate; ii) contacting in said first unit said raw gas mixture with micro-organisms capable of degrading said harmful sulphurous compounds in said aqueous medium; iii) allowing, under anaerobic conditions, said microorganisms to metabolize in said aqueous medium at least part of said harmful sulphurous compounds to sulphuric acid (H 2 SO 4) and to metabolize at least part of said nitrate into nitrite such that a gas product comprising a lower content of harmful sulphurous compounds compared to the raw gas mixture and an aqueous medium containing H 2 SO 4 and nitrite are obtained; and iv) discharging aqueous medium containing H 2 SO 4 and nitrite and said gas product from said first unit; v) passing said aqueous medium containing H 2 SO 4 and nitrite from said first unit to a second unit in which, under aerobic conditions, nitrate is regenerated by an oxidation reaction of nitrite to nitrate to obtain an aqueous medium containing H 2 SO 4 and nitrate; and vi) recycling at least part of said aqueous medium containing H 2 SO 4 and nitrate from said second unit back to said first unit to function as said acidic aqueous medium containing nitrate of step i); wherein, in the acidic aqueous medium introduced into said first unit, the nitrate level is controlled at a level which is sufficient to allow conversion of at least part of said harmful sulphurous compounds to H 2 SO 4 under said anaerobic conditions. i) introducing into a first unit: - a raw gas mixture containing harmful sulphurous compounds, and - an acidic aqueous medium containing nitrate; - a raw gas mixture containing harmful sulphurous compounds, and - an acidic aqueous medium containing nitrate; ii) contacting in said first unit said raw gas mixture with micro-organisms capable of degrading said harmful sulphurous compounds in said aqueous medium; iii) allowing, under anaerobic conditions, said microorganisms to metabolize in said aqueous medium at least part of said harmful sulphurous compounds to sulphuric acid (H 2 SO 4) and to metabolize at least part of said nitrate into nitrite such that a gas product comprising a lower content of harmful sulphurous compounds compared to the raw gas mixture and an aqueous medium containing H 2 SO 4 and nitrite are obtained; and iv) discharging aqueous medium containing H 2 SO 4 and nitrite and said gas product from said first unit; v) passing said aqueous medium containing H 2 SO 4 and nitrite from said first unit to a second unit in which, under aerobic conditions, nitrate is regenerated by an oxidation reaction of nitrite to nitrate to obtain an aqueous medium containing H 2 SO 4 and nitrate; and vi) recycling at least part of said aqueous medium containing H 2 SO 4 and nitrate from said second unit back to said first unit to function as said acidic aqueous medium containing nitrate of step i);
An atomic layer deposition reactor system comprising: at least one vertical flow ALD reactor configured to receive a batch of substrates for ALD processing, and comprising a lid system having a vacuum chamber lid integrated with a reaction chamber lid; characterized in that the ALD reactor comprises a vacuum chamber accommodating a reaction chamber accessible from the top; a lifting arrangement configured for lifting said lid system up for loading the reaction chamber; and a loading robot comprising a gripping part and a motion arrangement, the loading robot being configured to perform a loading sequence for loading the reaction chamber of said ALD reactor from the top of the reaction chamber, the loading sequence comprising: raising the lid system into an upper position with the lifting arrangement; picking up with said gripping part a substrate holder carrying a batch of substrates in a storage area or shelf; and moving with said motion arrangement said substrate holder with said batch of substrates from the top of the reaction chamber into the reaction chamber of the ALD reactor. at least one vertical flow ALD reactor configured to receive a batch of substrates for ALD processing, and comprising a lid system having a vacuum chamber lid integrated with a reaction chamber lid; characterized in that the ALD reactor comprises a vacuum chamber accommodating a reaction chamber accessible from the top; a lifting arrangement configured for lifting said lid system up for loading the reaction chamber; and a loading robot comprising a gripping part and a motion arrangement, the loading robot being configured to perform a loading sequence for loading the reaction chamber of said ALD reactor from the top of the reaction chamber, the loading sequence comprising: raising the lid system into an upper position with the lifting arrangement; picking up with said gripping part a substrate holder carrying a batch of substrates in a storage area or shelf; and moving with said motion arrangement said substrate holder with said batch of substrates from the top of the reaction chamber into the reaction chamber of the ALD reactor. raising the lid system into an upper position with the lifting arrangement; picking up with said gripping part a substrate holder carrying a batch of substrates in a storage area or shelf; and moving with said motion arrangement said substrate holder with said batch of substrates from the top of the reaction chamber into the reaction chamber of the ALD reactor.
A method for a target image reconstruction, comprising: emitting stepped frequency waveforms having different constant frequencies at different periods of time; modulating the stepped frequency waveforms into frequency ranges each having a first frequency and a second frequency, wherein each of the stepped frequency waveforms is increased from the first frequency to the second frequency based on a range function, wherein the modulated stepped frequency waveforms have a sparsity factor; transmitting the modulated stepped frequency waveforms to a target and accepting reflection of the modulated stepped frequency waveforms reflected from the target; interfering the modulated stepped frequency waveforms and the reflection of the modulated stepped frequency waveforms to produce beat signals of interferences between the modulated stepped frequency waveforms and the reflection of the modulated stepped frequency waveforms; and reconstructing an image of the target from the beat signals, characterized in that the sparsity factor is such that a sum of the frequency ranges is less than a total bandwidth over a measurement of the target. emitting stepped frequency waveforms having different constant frequencies at different periods of time; modulating the stepped frequency waveforms into frequency ranges each having a first frequency and a second frequency, wherein each of the stepped frequency waveforms is increased from the first frequency to the second frequency based on a range function, wherein the modulated stepped frequency waveforms have a sparsity factor; transmitting the modulated stepped frequency waveforms to a target and accepting reflection of the modulated stepped frequency waveforms reflected from the target; interfering the modulated stepped frequency waveforms and the reflection of the modulated stepped frequency waveforms to produce beat signals of interferences between the modulated stepped frequency waveforms and the reflection of the modulated stepped frequency waveforms; and reconstructing an image of the target from the beat signals, characterized in that the sparsity factor is such that a sum of the frequency ranges is less than a total bandwidth over a measurement of the target.
A thermal transfer printer comprising: a thermal head transferring ink and protective material onto paper from an ink ribbon on which the ink and the protective material are repeatedly arranged in a longitudinal direction thereof; a transporting unit transporting the ink ribbon which has characteristics such that the amount of matter generated from the ink ribbon by transfer and adhering to the thermal head has a peak at predetermined transfer energy and reduces in an energy range higher than the predetermined transfer energy with increase in transfer energy; and a control unit adjusting transfer energy for the protective material to a value within a predetermined range, the protective material being transferred by the thermal head after the ink, characterized in that the lower limit of the predetermined range is higher than the predetermined transfer energy and minimum energy at which the protective material can be transferred, and is a value sufficient for transfer of the protective material to reduce matter having adhered to the thermal head since transfer of the ink, and the upper limit of the predetermined range is lower than an energy value at which the protective material becomes mat and thereby glossiness of a protective layer on the paper formed from the protective material is lost. a thermal head transferring ink and protective material onto paper from an ink ribbon on which the ink and the protective material are repeatedly arranged in a longitudinal direction thereof; a transporting unit transporting the ink ribbon which has characteristics such that the amount of matter generated from the ink ribbon by transfer and adhering to the thermal head has a peak at predetermined transfer energy and reduces in an energy range higher than the predetermined transfer energy with increase in transfer energy; and a control unit adjusting transfer energy for the protective material to a value within a predetermined range, the protective material being transferred by the thermal head after the ink, characterized in that the lower limit of the predetermined range is higher than the predetermined transfer energy and minimum energy at which the protective material can be transferred, and is a value sufficient for transfer of the protective material to reduce matter having adhered to the thermal head since transfer of the ink, and the upper limit of the predetermined range is lower than an energy value at which the protective material becomes mat and thereby glossiness of a protective layer on the paper formed from the protective material is lost.
An optical glass having a composition consisting of, in terms of weight ratio: 0 to 14.8 wt% of SiO 2, 30 to 60 wt% of B 2 O 3, 5 to 17.5 wt% of Al 2 O 3, 0 to 0.4 wt% of Li 2 O, 0 to 3 wt% of Na 2 O, 0 to 3 wt% of K 2 O, 0 to 5 wt% of MgO, 0 to 30 wt% of CaO, 0 to 30 wt% of SrO, 0 to 35 wt% of BaO, where RO (MgO + CaO + SrO + BaO) is 8 to 35 wt%, 0 to 20 wt% of ZnO, 0 to 6.5 wt% of La 2 O 3, 0 to 15 wt% of Gd 2 O 3, 0 to 15 wt% of Y 2 O 3, 0 to 10 wt% of Ta 2 O 5, 0 to 9.5 wt% of ZrO 2, 0 to 1 wt% of As 2 O 3, and 0 to 0.5 wt% of Sb 2 O 3; and having a refractive index (nd) of 1.52 to 1.65, an Abbe number (νd) of 55 to 61, and an 80% transmission wavelength (at a thickness of 10 mm including no reflection loss) of 330 nm or shorter, wherein the molar ratio of Al 2 O 3 to B 2 O 3 is smaller than 0.20. 0 to 14.8 wt% of SiO 2, 30 to 60 wt% of B 2 O 3, 5 to 17.5 wt% of Al 2 O 3, 0 to 0.4 wt% of Li 2 O, 0 to 3 wt% of Na 2 O, 0 to 3 wt% of K 2 O, 0 to 5 wt% of MgO, 0 to 30 wt% of CaO, 0 to 30 wt% of SrO, 0 to 35 wt% of BaO, where RO (MgO + CaO + SrO + BaO) is 8 to 35 wt%, 0 to 20 wt% of ZnO, 0 to 6.5 wt% of La 2 O 3, 0 to 15 wt% of Gd 2 O 3, 0 to 15 wt% of Y 2 O 3, 0 to 10 wt% of Ta 2 O 5, 0 to 9.5 wt% of ZrO 2, 0 to 1 wt% of As 2 O 3, and 0 to 0.5 wt% of Sb 2 O 3; and
A cerclage atrial defibrillator, comprising: a cerclage wire; a coronary sinus tube provided with a lumen formed therein which is adapted for insertion of the cerclage wire thereinto, the coronary sinus tube is adapted for being inserted into the coronary sinus; and a tricuspid valve tube provided with a lumen formed therein, wherein the tricuspid valve tube is adapted for traversing the tricuspid valve and adapted for protecting the tricuspid valve and tissue of the interventricular septum; characterized in that the cerclage atrial defibrillator further comprises: a defibrillator lead adapted to be positioned in the superior vena cava or the left atrium to treat atrial fibrillation. a cerclage wire; a coronary sinus tube provided with a lumen formed therein which is adapted for insertion of the cerclage wire thereinto, the coronary sinus tube is adapted for being inserted into the coronary sinus; and a tricuspid valve tube provided with a lumen formed therein, wherein the tricuspid valve tube is adapted for traversing the tricuspid valve and adapted for protecting the tricuspid valve and tissue of the interventricular septum; characterized in that the cerclage atrial defibrillator further comprises: a defibrillator lead adapted to be positioned in the superior vena cava or the left atrium to treat atrial fibrillation.