mhurhangee/ep-ind-claims huggingface dataset:
A multi-use disposable set (MUDS) comprising: a plurality of syringes, each syringe having a syringe body, a proximal end, a distal end spaced apart from the proximal end along a longitudinal axis of the syringe body, a cone portion and a nozzle extending distally from the distal end of the syringe body, and a stabilizing element provided on a proximal end of the cone portion, wherein the stabilizing element has a support surface extending substantially perpendicular to the longitudinal axis of the syringe body for providing stable vertical alignment of the plurality of syringes with movable piston elements of a fluid injector as a planar surface on a top plate of the injector contacts the stabilizing element; a frame for receiving at least a portion of the proximal end of the plurality of syringes and for interacting with a bottom guide of the fluid injector to align the MUDS in a receiving space of the fluid injector; and a manifold in fluid communication with the distal end of each of the plurality of syringes. a plurality of syringes, each syringe having a syringe body, a proximal end, a distal end spaced apart from the proximal end along a longitudinal axis of the syringe body, a cone portion and a nozzle extending distally from the distal end of the syringe body, and a stabilizing element provided on a proximal end of the cone portion, wherein the stabilizing element has a support surface extending substantially perpendicular to the longitudinal axis of the syringe body for providing stable vertical alignment of the plurality of syringes with movable piston elements of a fluid injector as a planar surface on a top plate of the injector contacts the stabilizing element; a frame for receiving at least a portion of the proximal end of the plurality of syringes and for interacting with a bottom guide of the fluid injector to align the MUDS in a receiving space of the fluid injector; and a manifold in fluid communication with the distal end of each of the plurality of syringes.
A method of adjusting a plating apparatus, the method comprising the steps of: providing a plating bath configured to be able to hold a substrate holder, an anode holder, and an electric field adjusting plate; installing a first jig at a position in the plating bath where the substrate holder is installed; installing a second jig (30, 50) at a position in the plating bath where the anode holder or the electric field adjusting plate is installed; measuring a positional relation between the first jig and the second jig (30, 50) installed in the plating bath using sensors (14, 15, 16a, 16b, 16c, 16d) included in either of the first jig and the second jig (30, 50); and adjusting an installation position of the substrate holder, the anode holder, or the electric field adjusting plate based on the measured positional relation. providing a plating bath configured to be able to hold a substrate holder, an anode holder, and an electric field adjusting plate; installing a first jig at a position in the plating bath where the substrate holder is installed; installing a second jig (30, 50) at a position in the plating bath where the anode holder or the electric field adjusting plate is installed; measuring a positional relation between the first jig and the second jig (30, 50) installed in the plating bath using sensors (14, 15, 16a, 16b, 16c, 16d) included in either of the first jig and the second jig (30, 50); and adjusting an installation position of the substrate holder, the anode holder, or the electric field adjusting plate based on the measured positional relation.
Push-off device, in particular for agricultural transport goods, comprising a loading space having a loading floor, two side walls laterally adjacent thereto and a push-off wall, which is slidable in the longitudinal direction (x) of the loading space relative to a sliding floor, which in turn is slidable in the longitudinal direction (x) of the loading space relative to the loading floor of the loading space, wherein - the push-off device has a first hydraulic cylinder arrangement comprising at least one first hydraulic cylinder piston that is movable in a first hydraulic cylinder tube, - the push-off device has a second hydraulic cylinder arrangement comprising at least one second hydraulic cylinder piston that is movable in a second hydraulic cylinder tube, characterised in that - the push-off wall is slidably mounted on the second hydraulic cylinder tube in the longitudinal direction (x) of the loading space and is slidable by means of the first hydraulic cylinder arrangement relative to the sliding floor, which is slidable by means of the second hydraulic cylinder arrangement relative to the loading floor of the loading space. - the push-off device has a first hydraulic cylinder arrangement comprising at least one first hydraulic cylinder piston that is movable in a first hydraulic cylinder tube, - the push-off device has a second hydraulic cylinder arrangement comprising at least one second hydraulic cylinder piston that is movable in a second hydraulic cylinder tube, characterised in that - the push-off wall is slidably mounted on the second hydraulic cylinder tube in the longitudinal direction (x) of the loading space and is slidable by means of the first hydraulic cylinder arrangement relative to the sliding floor, which is slidable by means of the second hydraulic cylinder arrangement relative to the loading floor of the loading space.
Process for making a coated oxide material, said process comprising the following steps: (a) providing a particulate material selected from lithiated nickel-cobalt aluminum oxides, lithiated cobalt-manganese oxides and lithiated layered nickel-cobalt-manganese oxides, (b) treating said cathode active material with a metal alkoxide or metal amide or alkyl metal compound at a pressure that is in the range of from 5 mbar to 1 bar above ambient pressure, (c) deactivating the material obtained in step (b) with an HF containing gas at ambient pressure, wherein step (b) is carried out in a mixer that mechanically introduces mixing energy into the particulate material and that is selected from compulsory mixers and free-fall mixers, or by way of a moving bed or fixed bed wherein an inert gas containing a metal alkoxide or metal amide or alkyl metal compound flows from top to bottom through the respective bed. (a) providing a particulate material selected from lithiated nickel-cobalt aluminum oxides, lithiated cobalt-manganese oxides and lithiated layered nickel-cobalt-manganese oxides, (b) treating said cathode active material with a metal alkoxide or metal amide or alkyl metal compound at a pressure that is in the range of from 5 mbar to 1 bar above ambient pressure, (c) deactivating the material obtained in step (b) with an HF containing gas at ambient pressure,
A smart lock for securing a door comprising: an actuator configured to actuate a lock mechanism between a locked and an unlocked position; a housing attachable to a first side of the door, retaining the lock mechanism and the actuator; a receiver configured to wirelessly receive a signal to control operation of the actuator; a key mechanism engageable with the lock mechanism so as to actuate the lock mechanism, the key mechanism for receiving a tail piece of a key cylinder; a handle mechanism engageable with the lock mechanism so as to actuate the lock mechanism; and a handle arranged to control operation of the handle mechanism extending from the housing on the first side of the door, wherein the key mechanism and the handle mechanism are disengageable from the lock mechanism. an actuator configured to actuate a lock mechanism between a locked and an unlocked position; a housing attachable to a first side of the door, retaining the lock mechanism and the actuator; a receiver configured to wirelessly receive a signal to control operation of the actuator; a key mechanism engageable with the lock mechanism so as to actuate the lock mechanism, the key mechanism for receiving a tail piece of a key cylinder; a handle mechanism engageable with the lock mechanism so as to actuate the lock mechanism; and a handle arranged to control operation of the handle mechanism extending from the housing on the first side of the door,
Gas flow velocity meter comprising: • a gas detecting section(130a, 130b, 130c); and • a control section; • a gas processing part configured to create a disturbance in a particular gas flow at a pre-set basic point; wherein the gas detecting section comprises: • a 1 st gas detecting section, located at a 1 st position from the pre-set basic point, configured to emit 1 st light with an absorptive wavelength of a particular gas to be measured out of a mixed gas, and to provide a 1 st detection signal corresponding to the quantity of the 1 st light at a 1 st time, 2 nd gas detecting section, located at a 2 nd position from the pre-set basic point, configured to emit a 2 nd light with the absorptive wavelength of the particular gas, and to provide a detection signal corresponding to the quantity of 2 nd light at a 2 nd time, and 3 rd gas detecting section, located at a 3 rd position from the pre-set basic point, configured to emit 3 rd light with the absorptive wavelength of the particular gas, and to provide a 3 rd detection signal corresponding to the quantity of the 3 rd light at a 3 rd time; and • wherein the control section is configured to calculate a 1 st velocity, a 2 nd velocity and a 3 rd velocity based on the detection signals provided from the 1 st, the 2 nd and the 3 rd gas detecting sections respectively, and to calculate a terminal velocity (v f) of the particular gas based on the 1 st velocity, the 2 nd velocity and the 3 rd velocity of the particular gas using a formula v f = v 1 L 2 − L 3 + v 2 L 3 − L 1 + v 3 L 1 − L 2 v 1 t 2 − t 3 + v 2 t 3 − t 1 + v 3 t 1 − t 2. • a gas detecting section(130a, 130b, 130c); and • a control section; • a gas processing part configured to create a disturbance in a particular gas flow at a pre-set basic point; • a 1 st gas detecting section, located at a 1 st position from the pre-set basic point, configured to emit 1 st light with an absorptive wavelength of a particular gas to be measured out of a mixed gas, and to provide a 1 st detection signal corresponding to the quantity of the 1 st light at a 1 st time, 2 nd gas detecting section, located at a 2 nd position from the pre-set basic point, configured to emit a 2 nd light with the absorptive wavelength of the particular gas, and to provide a detection signal corresponding to the quantity of 2 nd light at a 2 nd time, and 3 rd gas detecting section, located at a 3 rd position from the pre-set basic point, configured to emit 3 rd light with the absorptive wavelength of the particular gas, and to provide a 3 rd detection signal corresponding to the quantity of the 3 rd light at a 3 rd time; and • wherein the control section is configured to calculate a 1 st velocity, a 2 nd velocity and a 3 rd velocity based on the detection signals provided from the 1 st, the 2 nd and the 3 rd gas detecting sections respectively, and to calculate a terminal velocity (v f) of the particular gas based on the 1 st velocity, the 2 nd velocity and the 3 rd velocity of the particular gas using a formula v f = v 1 L 2 − L 3 + v 2 L 3 − L 1 + v 3 L 1 − L 2 v 1 t 2 − t 3 + v 2 t 3 − t 1 + v 3 t 1 − t 2.
A trip device comprising a power source side heater connected to a power source side of a molded case circuit breaker (MCCB) to receive current, a load side heater connected to a load side of the MCCB to receive the current; and a bimetal including a direct heat unit contacting the power source side heater the trip device being characterized by: an indirect heating unit facing the power source side heater, wherein the bimetal is partially fixed between the power source side heater and the load side heater and is curved when over-current or short-circuited current flows in the MCCB, and wherein a first surface of the bimetal is contacted and fixed by the power source side heater, and a second surface which is a rear surface of the first surface is contacted and fixed by the load side heater.
Control device in particular for a motor vehicle, comprising: - a board, - a rotary switch (16, 18, 20) and a peripheral display zone (30, 32, 34) which are arranged on the board, - a back-lighting device (24, 26, 28) designed to backlight the rotary switch (16, 18, 20) and the peripheral display zone (30, 32, 34), the rotary switch (16, 18, 20) comprising a knob which is rotatably mounted with respect to the board about an axis, the knob being provided with an illuminated pointer turning with the knob, the peripheral display zone (30, 32, 34) comprising fixed illuminated symbols arranged around the rotary switch (16, 18, 20), wherein the backlighting device (24, 26, 28) comprises at least one light source which cooperates with a light guide (62, 64, 66) lighting both the illuminated pointer and the peripheral display zone (30, 32, 34), the light guide (62, 64, 66) being made in one piece and fixed to the board; the peripheral display zone (30, 32, 34) being backlit by a generally transverse portion of the light guide (62, 64, 66); and the light guide (62, 64, 66) comprising an axial portion which extends inside the knob towards the pointer from the internal peripheral edge of the transverse portion so as to backlight the pointer. - a board, - a rotary switch (16, 18, 20) and a peripheral display zone (30, 32, 34) which are arranged on the board, - a back-lighting device (24, 26, 28) designed to backlight the rotary switch (16, 18, 20) and the peripheral display zone (30, 32, 34), the rotary switch (16, 18, 20) comprising a knob which is rotatably mounted with respect to the board about an axis, the knob being provided with an illuminated pointer turning with the knob, the peripheral display zone (30, 32, 34) comprising fixed illuminated symbols arranged around the rotary switch (16, 18, 20), wherein the backlighting device (24, 26, 28) comprises at least one light source which cooperates with a light guide (62, 64, 66) lighting both the illuminated pointer and the peripheral display zone (30, 32, 34), the light guide (62, 64, 66) being made in one piece and fixed to the board; the peripheral display zone (30, 32, 34) being backlit by a generally transverse portion of the light guide (62, 64, 66); and the light guide (62, 64, 66) comprising an axial portion which extends inside the knob towards the pointer from the internal peripheral edge of the transverse portion so as to backlight the pointer.
A crane, comprising: a plurality of hydraulic winches (17, 18); and wire ropes that are drawn in and out from the plurality of hydraulic winches (17, 18) and are suspended on a sheave (11, 12) of a boom to be derricked with a hydraulic cylinder or a sheave of a jib provided to a distal end section of the boom, characterized in that the crane comprises: a safety apparatus that sets a hydraulic winch to be used among the plurality of hydraulic winches (17, 18) and a number of turns of the wire rope drawn in and out from the hydraulic winch to be used; and a control apparatus that calculates tensions of the wire ropes from output torques of the plurality of hydraulic winches (17, 18) and winding radiuses of the wire ropes wound around the plurality of hydraulic winches (17, 18), and that determines a setting in the safety apparatus is erroneous, when the tension of the wire rope wound around a hydraulic winch different from the hydraulic winch (17, 18) to be used set in the safety apparatus is greater than or equal to a reference value. a plurality of hydraulic winches (17, 18); and wire ropes that are drawn in and out from the plurality of hydraulic winches (17, 18) and are suspended on a sheave (11, 12) of a boom to be derricked with a hydraulic cylinder or a sheave of a jib provided to a distal end section of the boom, characterized in that the crane comprises: a safety apparatus that sets a hydraulic winch to be used among the plurality of hydraulic winches (17, 18) and a number of turns of the wire rope drawn in and out from the hydraulic winch to be used; and a control apparatus that calculates tensions of the wire ropes from output torques of the plurality of hydraulic winches (17, 18) and winding radiuses of the wire ropes wound around the plurality of hydraulic winches (17, 18), and that determines a setting in the safety apparatus is erroneous, when the tension of the wire rope wound around a hydraulic winch different from the hydraulic winch (17, 18) to be used set in the safety apparatus is greater than or equal to a reference value. a safety apparatus that sets a hydraulic winch to be used among the plurality of hydraulic winches (17, 18) and a number of turns of the wire rope drawn in and out from the hydraulic winch to be used; and a control apparatus that calculates tensions of the wire ropes from output torques of the plurality of hydraulic winches (17, 18) and winding radiuses of the wire ropes wound around the plurality of hydraulic winches (17, 18), and that determines a setting in the safety apparatus is erroneous, when the tension of the wire rope wound around a hydraulic winch different from the hydraulic winch (17, 18) to be used set in the safety apparatus is greater than or equal to a reference value.
A method for producing an image of a subject over an extended field-of-view of a magnetic resonance imaging system having a predefined FOV that is smaller than the extended FOV, the method comprising the steps of: a) determining a set of imaging stations at which to image said subject over the extended FOV; b) performing a prescan at the set of imaging stations using receiver coil elements to acquire a prescan data set; c) determining sensitivity profiles of the receiver coil elements at each of the set of imaging stations from the prescan data set; d) moving the subject to a first station in the set of imaging stations; e) performing a stationary, parallel imaging acquisition while the subject is at the first station to acquire a first set of NMR data from the subject; f) moving the subject toward a second station in the set of imaging stations; g) performing an intermediate imaging acquisition while the subject is being moved toward the second station in the set of imaging stations to acquire a second set of NMR data; h) repeating steps d) through g) for the second and any further imaging station of the set of imaging stations until NMR data has been acquired at all imaging stations of the set of imaging stations, thereby acquiring a series of NMR data from the subject at each station in the set of imaging stations; and i) reconstructing and processing the series NMR data using the sensitivity profiles determined at step c) to produce images of the subject over the extended FOV. a) determining a set of imaging stations at which to image said subject over the extended FOV; b) performing a prescan at the set of imaging stations using receiver coil elements to acquire a prescan data set; c) determining sensitivity profiles of the receiver coil elements at each of the set of imaging stations from the prescan data set; d) moving the subject to a first station in the set of imaging stations; e) performing a stationary, parallel imaging acquisition while the subject is at the first station to acquire a first set of NMR data from the subject; f) moving the subject toward a second station in the set of imaging stations; g) performing an intermediate imaging acquisition while the subject is being moved toward the second station in the set of imaging stations to acquire a second set of NMR data; h) repeating steps d) through g) for the second and any further imaging station of the set of imaging stations until NMR data has been acquired at all imaging stations of the set of imaging stations, thereby acquiring a series of NMR data from the subject at each station in the set of imaging stations; and i) reconstructing and processing the series NMR data using the sensitivity profiles determined at step c) to produce images of the subject over the extended FOV.
A polyurethane based on i) at least one isocyanate A, ii)at least one polyester diol B, and iii) optionally chain extenders C and further assistants, wherein said polyester diol B is based on a dicarboxylic acid having an even number of carbon atoms and the diol underlying said polyester diol B is 1,3-propanediol. i) at least one isocyanate A, ii)at least one polyester diol B, and iii) optionally chain extenders C and further assistants,
A method for signal transmission, comprising: determining a time-frequency resource location of a downlink signal, wherein the downlink signal comprises at least one of a Synchronization Signal, SS, a broadcast signal, a common control channel signal, a common reference signal and a Measurement Reference Signal, MRS, the time-frequency resource location of the downlink signal is on multiple frequency points of a carrier within a predetermined time and the multiple frequency points are part of frequency points within a bandwidth of the carrier, wherein time-frequency resource location of the common control channel signal or the common reference signal is within a downlink control region; and transmitting the downlink signal according to the time-frequency resource location of the downlink signal; characterized in that when the downlink signal comprises the MRS, transmitting the downlink signal according to the time-frequency resource location of the downlink signal comprises: transmitting the MRS in a location, not used for the downlink control region, of the multiple frequency points, according to periodicity. determining a time-frequency resource location of a downlink signal, wherein the downlink signal comprises at least one of a Synchronization Signal, SS, a broadcast signal, a common control channel signal, a common reference signal and a Measurement Reference Signal, MRS, the time-frequency resource location of the downlink signal is on multiple frequency points of a carrier within a predetermined time and the multiple frequency points are part of frequency points within a bandwidth of the carrier, wherein time-frequency resource location of the common control channel signal or the common reference signal is within a downlink control region; and transmitting the downlink signal according to the time-frequency resource location of the downlink signal; characterized in that when the downlink signal comprises the MRS, transmitting the downlink signal according to the time-frequency resource location of the downlink signal comprises: transmitting the MRS in a location, not used for the downlink control region, of the multiple frequency points, according to periodicity.
A method of joining workpieces, comprising: locating first ends of two first parts in a part coupling portion, said part coupling portion being fixed to a slide device capable of axial movement; simultaneously measuring the length of said two first parts; determining a difference in length of said two first parts; adjusting an axial location of both first parts simultaneously to adjust for any differences in length; locating two second parts adjacent two second ends of said two first parts; and simultaneously welding said first and second parts together. locating first ends of two first parts in a part coupling portion, said part coupling portion being fixed to a slide device capable of axial movement; simultaneously measuring the length of said two first parts; determining a difference in length of said two first parts; adjusting an axial location of both first parts simultaneously to adjust for any differences in length; locating two second parts adjacent two second ends of said two first parts; and simultaneously welding said first and second parts together.