mhurhangee/ep-ind-claims huggingface dataset:
A control panel configured to prevent water accumulation, comprising: - a display sheet which is transparent or translucent and used for covering and protecting a circuit board and/or component, - an interface label having functional areas allowing a user to observe or operate the circuit board and/or component, and - an adhesive layer connected between areas of the display sheet and the interface label except for the functional areas so as to adhere the display sheet and the interface label together, whereby cavities are formed between the functional areas of the interface label and corresponding locations of the display sheet so as to form a display window and/or key windows, and wherein water guiding grooves are provided in the adhesive layer for communicating the cavities with the outside so as to discharge the accumulated water. - a display sheet which is transparent or translucent and used for covering and protecting a circuit board and/or component, - an interface label having functional areas allowing a user to observe or operate the circuit board and/or component, and - an adhesive layer connected between areas of the display sheet and the interface label except for the functional areas so as to adhere the display sheet and the interface label together, whereby cavities are formed between the functional areas of the interface label and corresponding locations of the display sheet so as to form a display window and/or key windows, and wherein water guiding grooves are provided in the adhesive layer for communicating the cavities with the outside so as to discharge the accumulated water.
An insulating composition comprising silica particles, a resin, and a curing agent, wherein: when an aqueous solution of the silica particles having an SiO 2 concentration of 3.8% by mass is heated at 121°C for 20 hours, the amount of Na ions eluted from the silica particles is 40 ppm/SiO 2 or less, the silica particles contain a polyvalent metal oxide such that the ratio by mole of a polyvalent metal M to Si is 0.001 to 0.02; the mass ratio of Na 2 O/SiO 2 in the silica particles is 700 to 1,300 ppm; and the silica particles have, on the surfaces thereof, a layer having a thickness of 0.1 to 1.5 nm and an Na 2 O/SiO 2 mass ratio of 10 to 400 ppm, and have an average particle diameter of 5 to 40 nm. when an aqueous solution of the silica particles having an SiO 2 concentration of 3.8% by mass is heated at 121°C for 20 hours, the amount of Na ions eluted from the silica particles is 40 ppm/SiO 2 or less, the silica particles contain a polyvalent metal oxide such that the ratio by mole of a polyvalent metal M to Si is 0.001 to 0.02; the mass ratio of Na 2 O/SiO 2 in the silica particles is 700 to 1,300 ppm; and the silica particles have, on the surfaces thereof, a layer having a thickness of 0.1 to 1.5 nm and an Na 2 O/SiO 2 mass ratio of 10 to 400 ppm, and have an average particle diameter of 5 to 40 nm.
A follower mechanism movable along an axis within a bore including an alignment groove, comprising: a bucket including a cylindrical inner surface and a cylindrical outer surface, the inner surface of the bucket defining at least one axially extending groove; a yoke positioned at least partially within the bucket, the yoke including a substantially rectangular bottom wall and two opposed sidewalls depending upwardly therefrom, each sidewall defining a shaft aperture, and a corresponding corner of the bottom wall being slidably received by the at least one axially extending groove; a shaft having first and second ends received in the shaft apertures; and a roller follower rotatably received on the shaft such that a portion of the roller follower extends axially outwardly beyond the bucket; and an alignment device depending outwardly beyond the outer surface of the bucket, the alignment device being slidably received in the alignment groove of the bore. a bucket including a cylindrical inner surface and a cylindrical outer surface, the inner surface of the bucket defining at least one axially extending groove; a yoke positioned at least partially within the bucket, the yoke including a substantially rectangular bottom wall and two opposed sidewalls depending upwardly therefrom, each sidewall defining a shaft aperture, and a corresponding corner of the bottom wall being slidably received by the at least one axially extending groove; a shaft having first and second ends received in the shaft apertures; and a roller follower rotatably received on the shaft such that a portion of the roller follower extends axially outwardly beyond the bucket; and an alignment device depending outwardly beyond the outer surface of the bucket, the alignment device being slidably received in the alignment groove of the bore.
A medical apparatus for monitoring a medical procedure, comprising: a probe; an ablation module configured to apply energy to the probe that is in contact with tissue in a cavity within a body of a living subject so as to ablate the tissue; a display; and a processor configured: to receive, while the ablation module applies the energy, signals from a location transducer in the probe, which are indicative of a location of the probe in the cavity, to process the signals so as to derive three-dimensional location coordinate points corresponding to the location of the probe at a sequence of times during which the energy was applied, and while the ablation module applies the energy, to render to the display a 3D representation of the body cavity, and to superimpose on the 3D representation visual indicators corresponding to the 3D location coordinate points at the sequence of times together with a linear trace connecting the coordinate points in accordance with the sequence. a probe; an ablation module configured to apply energy to the probe that is in contact with tissue in a cavity within a body of a living subject so as to ablate the tissue; a display; and a processor configured: to receive, while the ablation module applies the energy, signals from a location transducer in the probe, which are indicative of a location of the probe in the cavity, to process the signals so as to derive three-dimensional location coordinate points corresponding to the location of the probe at a sequence of times during which the energy was applied, and while the ablation module applies the energy, to render to the display a 3D representation of the body cavity, and to superimpose on the 3D representation visual indicators corresponding to the 3D location coordinate points at the sequence of times together with a linear trace connecting the coordinate points in accordance with the sequence. to receive, while the ablation module applies the energy, signals from a location transducer in the probe, which are indicative of a location of the probe in the cavity, to process the signals so as to derive three-dimensional location coordinate points corresponding to the location of the probe at a sequence of times during which the energy was applied, and while the ablation module applies the energy, to render to the display a 3D representation of the body cavity, and to superimpose on the 3D representation visual indicators corresponding to the 3D location coordinate points at the sequence of times together with a linear trace connecting the coordinate points in accordance with the sequence.
A continuous process for treating a porous hollow fiber membrane comprising i) polysulfone, polyethersulfone or polyarylethersulfone; and ii) polyvinylpyrrolidone; the process comprising continuously feeding the membrane through a zone in which the membrane is irradiated with UV radiation at a dose of from 200 to 800 mJ/cm 2, the UV radiation having a wavelength of 254 nm and being generated by low-pressure mercury-vapor lamps.
A method of mass spectrometry comprising: digitising a first signal output from an ion detector to produce a first digitised signal; determining the arrival time T o or mass or mass to charge ratio M 0 of one or more first ions; and determining the intensity S o of said one or more first ions; characterised in that said method further comprises: converting the determined arrival time T 0 of said one or more first ions into a first arrival time T n and a second arrival time T n+1 or into a first mass or mass to charge ratio value M n and a second mass or mass to charge ratio value M n+1; or converting the mass or mass to charge ratio M 0 of said one or more first ions into a first mass or mass to charge ratio value M n and a second mass or mass to charge ratio value M n+1; and/or converting the determined intensity S o of said one or more first ions into a first intensity or area S n and a second intensity or area S n+1; wherein said determined intensity S 0 follows the relationship: S 0 = S n + S n + 1; and wherein S o.T o follows the relationship: S n. T n + S n + 1. T n + 1 = S 0. T 0. digitising a first signal output from an ion detector to produce a first digitised signal; determining the arrival time T o or mass or mass to charge ratio M 0 of one or more first ions; and determining the intensity S o of said one or more first ions; characterised in that said method further comprises: converting the determined arrival time T 0 of said one or more first ions into a first arrival time T n and a second arrival time T n+1 or into a first mass or mass to charge ratio value M n and a second mass or mass to charge ratio value M n+1; or converting the mass or mass to charge ratio M 0 of said one or more first ions into a first mass or mass to charge ratio value M n and a second mass or mass to charge ratio value M n+1; and/or converting the determined intensity S o of said one or more first ions into a first intensity or area S n and a second intensity or area S n+1; wherein said determined intensity S 0 follows the relationship: S 0 = S n + S n + 1; and wherein S o.T o follows the relationship: S n. T n + S n + 1. T n + 1 = S 0. T 0. converting the determined arrival time T 0 of said one or more first ions into a first arrival time T n and a second arrival time T n+1 or into a first mass or mass to charge ratio value M n and a second mass or mass to charge ratio value M n+1; or converting the mass or mass to charge ratio M 0 of said one or more first ions into a first mass or mass to charge ratio value M n and a second mass or mass to charge ratio value M n+1; and/or converting the determined intensity S o of said one or more first ions into a first intensity or area S n and a second intensity or area S n+1; wherein said determined intensity S 0 follows the relationship: S 0 = S n + S n + 1; and wherein S o.T o follows the relationship: S n. T n + S n + 1. T n + 1 = S 0. T 0.
A biopotential acquisition system with a lead-on detection circuitry comprising: an input terminal (N1, N2); a duty-cycle controller (130, 600), configured to generate a first clock signal; a transmitting signal generator, configured to generate a transmitting signal to the input terminal (N1, N2) according to the first clock signal; a mixer-based receiver (120, 200, 300, 400, 500), configured to perform a mixing operation based on the first clock signal and the transmitting signal to generate an output signal, wherein the output signal indicates if an electrode of the biopotential acquisition system is in contact with a human body, and the electrode is coupled to the input terminal (N1, N2); characterized in that the duty-cycle controller (130, 600) is further configured to generate a second clock signal, wherein a frequency of the second clock signal is lower than a frequency of the first clock signal; and the mixer-based receiver (120, 200, 300, 400, 500) and the transmitting signal generator are enabled or disabled based on the second clock signal. an input terminal (N1, N2); a duty-cycle controller (130, 600), configured to generate a first clock signal; a transmitting signal generator, configured to generate a transmitting signal to the input terminal (N1, N2) according to the first clock signal; a mixer-based receiver (120, 200, 300, 400, 500), configured to perform a mixing operation based on the first clock signal and the transmitting signal to generate an output signal, wherein the output signal indicates if an electrode of the biopotential acquisition system is in contact with a human body, and the electrode is coupled to the input terminal (N1, N2); characterized in that the duty-cycle controller (130, 600) is further configured to generate a second clock signal, wherein a frequency of the second clock signal is lower than a frequency of the first clock signal; and the mixer-based receiver (120, 200, 300, 400, 500) and the transmitting signal generator are enabled or disabled based on the second clock signal.
An automatic feeder comprising a feeding pipe discharging a feed when a pig gnaws a gnawing block thereon and thus triggers a pressure sensor or a switch, a hopper configured to be filled with a dry feed material, a motor, a spiral conveyor for conveying the dry feed material in the hopper to the feeding pipe and having one end connected with the motor to receiving its power for rotation and the other end placed in the feeding pipe, a water supply pipeline for providing water for mixing the dry feed material in the feeding pipe, and a control unit for powering on the motor and opening the water supply pipeline simultaneously after receiving a triggering signal of the pressure sensor or the switch and powering off the motor and closing the water supply pipeline when not receiving the triggering signal of the pressure sensor or the switch, wherein a mounting slot hole of a triggering connecting lever is axially formed in a pipe wall of a discharging outlet at a front end of the feeding pipe and a gnawing block mounting groove is radially formed in the pipe wall of the discharging outlet, the mounting slot hole and the gnawing block mounting groove are communicated with each other; one end of the triggering connecting lever is connected to the gnawing block located in the gnawing block mounting groove, the other end of the triggering connecting lever is fixedly connected to the pressure sensor or the switch; a gap is reserved between the triggering connecting lever and the mounting slot hole; and when the gnawing block is gnawed, the triggering connecting lever is deformed to trigger the pressure sensor or the switch to respond, and in that one end, connected with the motor, of the spiral conveyor is higher than the other end thereof located in the feeding pipe to prevent water in the water supply pipeline from flowing into the hopper, the spiral conveyor is connected with the motor via a motor rod, and a stirring vane for scattering the dry feed material is arranged on the motor rod.
A lens driving device, comprising: a housing; a bobbin disposed at an inner side of the housing; a support member coupled to the bobbin and the housing; and a sensor sensing a position of at least one of the bobbin and the housing, wherein the support member includes a first support unit, and a second support unit disposed not parallel to the first support unit, characterized in that the sensor is disposed more adjacent to the first support unit than to the second support unit, and wherein an elastic modulus of the fist support unit is lower than an elastic modulus of the second support unit in order to reduce the possibility of oscillations of the bobbin. a housing; a bobbin disposed at an inner side of the housing; a support member coupled to the bobbin and the housing; and a sensor sensing a position of at least one of the bobbin and the housing, wherein the support member includes a first support unit, and a second support unit disposed not parallel to the first support unit, characterized in that the sensor is disposed more adjacent to the first support unit than to the second support unit, and wherein an elastic modulus of the fist support unit is lower than an elastic modulus of the second support unit in order to reduce the possibility of oscillations of the bobbin.
A profile bar assembly for a blind frame and a sash frame of a door or a window, having at least one blind frame profile and at least one sash frame profile differing from the blind frame profile in its profile cross section, wherein at least one first and one second profile element (18, 20) are associated with the blind frame profile and the sash frame profile, the profile elements (18, 20) have a differing profile cross section and respectively form a cover (32, 52, 102, 112), and the covers (32, 52, 102, 112) cover at least one first receiving cavity of the blind frame profile and at least one second receiving cavity of the sash frame profile, characterised in that the covers (32, 52, 102, 112) are fixed on the blind frame profile and sash frame profile by means of integral fixing arrangements of such kind that the first profile element is fixable both on the blind frame profile and the sash frame profile, and the second profile element is fixable both on the sash frame profile and the blind frame profile.
Nitrocellulose-based propellant composition comprising: (a) a nitrate ester based propellant, and (b) a stabilizer consisting of a general formula: Said nitrocellulose-bbased composition having a stability measured according to STANAG 4582 (Ed. 1) at a temperature of 90 °C without heat flow generation above 350 μW/g for at least 3.43 days, and wherein, R 1 represents, alkyl substituted or not; R 2 represents: (i) H; (ii) unsaturated alkyl group; (iii) (iv) or (v) R 3 represents, H, alkyl substituted or not, or OR 8; R 4 represents, alkyl substituted or not, aromatic ring substituted or not, or OR 8; R 5 represents, alkyl substituted or not, aromatic ring substituted or not, or OR 9; R 6 represents, aromatic ring substituted or not; R 7 represents, alkyl substituted or not; R 8 represents, alkyl substituted or not, or aromatic ring substituted; R 9 represents, alkyl substituted or not, or aromatic ring substituted. (a) a nitrate ester based propellant, and (b) a stabilizer consisting of a general formula: R 1 represents, alkyl substituted or not; R 2 represents: (i) H; (ii) unsaturated alkyl group; (iii) (iv) or (v) (i) H; (ii) unsaturated alkyl group; (iii) (iv) or (v) R 3 represents, H, alkyl substituted or not, or OR 8; R 4 represents, alkyl substituted or not, aromatic ring substituted or not, or OR 8; R 5 represents, alkyl substituted or not, aromatic ring substituted or not, or OR 9; R 6 represents, aromatic ring substituted or not; R 7 represents, alkyl substituted or not; R 8 represents, alkyl substituted or not, or aromatic ring substituted; R 9 represents, alkyl substituted or not, or aromatic ring substituted.
A compound of Formula I wherein R 1 is H, Cl, Br, N(CH 3) 2, or methoxy; R 2 is H or OH; each R 3 is independently C 1 - 6 alkyl; X is CH 2, C, or CH=CH; Q is C 0-6 alkyl; R 4 is NR 5 R 5; wherein one R 5 is H and the other is CH 2 CO 2 H, CH 2 SO 3 H, CH 2 CH 2 SO 3 H, or CH(R 7)C 0-1 alkyCO 2 H. R 7 is C 0-6 alkylCO 2 H, C 0-6 alkylOH, C 0-6 alkylSO 3 H or C 0-6 alkylPO 3 H 2 wherein R 1 is H, Cl, Br, N(CH 3) 2, or methoxy; R 2 is H or OH; each R 3 is independently C 1 - 6 alkyl; X is CH 2, C, or CH=CH; Q is C 0-6 alkyl; R 4 is NR 5 R 5; wherein one R 5 is H and the other is CH 2 CO 2 H, CH 2 SO 3 H, CH 2 CH 2 SO 3 H, or CH(R 7)C 0-1 alkyCO 2 H. R 7 is C 0-6 alkylCO 2 H, C 0-6 alkylOH, C 0-6 alkylSO 3 H or C 0-6 alkylPO 3 H 2
A servomotor adjustment device comprising: a memory unit (12, 13) that stores a plurality of instructions; and a processor coupled to the memory unit (12, 13) and configured to execute the instructions to: display an adjustment screen for a servo parameter that is set for a motor driver that controls drive of a corresponding one of a plurality of control axes that make a control target operate in response to a control instruction; set a condition for the servo parameter adjusted on the adjustment screen in the motor driver for each control axis; obtain, along with the control instruction, measurement data on a speed control result or position control result for each of the control axes associated with each other under the condition for the servo parameter set in the motor driver for each control axis; and display a graph indicating a temporal change of the measurement data for each control axis and the control instruction on a same time base in a first area in the adjustment screen, and display, in a second area in the adjustment screen, a control trajectory that indicates a transition of a control position of a control axis by association of the measurement data on the control axes measured at a same time and a target trajectory that indicates a transition of a target position of the control axis by association of the control instructions for the control axes obtained at a same time, characterized in that the measurement data is superimposed on the control instruction for each control axis in the first area and the control trajectory is superimposed on the target trajectory in the second area. display an adjustment screen for a servo parameter that is set for a motor driver that controls drive of a corresponding one of a plurality of control axes that make a control target operate in response to a control instruction; set a condition for the servo parameter adjusted on the adjustment screen in the motor driver for each control axis; obtain, along with the control instruction, measurement data on a speed control result or position control result for each of the control axes associated with each other under the condition for the servo parameter set in the motor driver for each control axis; and display a graph indicating a temporal change of the measurement data for each control axis and the control instruction on a same time base in a first area in the adjustment screen, and display, in a second area in the adjustment screen, a control trajectory that indicates a transition of a control position of a control axis by association of the measurement data on the control axes measured at a same time and a target trajectory that indicates a transition of a target position of the control axis by association of the control instructions for the control axes obtained at a same time, characterized in that the measurement data is superimposed on the control instruction for each control axis in the first area and the control trajectory is superimposed on the target trajectory in the second area.
Nonwoven comprising a cellulosic fibre comprising a hydrophobic agent, characterised in that the softness of the fibre measured by the sledge test according to EN 1202 PPS is at least 1,3 times higher than the softness of an untreated fibre of the same type, the hydrophobic agent is an Alkyl Ketene Dimer according to formula where R1 and R2 are hydrocarbon groups with between 8 and 40 carbon atoms and which can be both, saturated or unsaturated, straight-chained or branched, and wherein the cellulosic fibre is cotton, a viscose fibre, a modal fibre or a lyocell fibre.