mhurhangee/patent-ind-claim-en huggingface dataset:
A monitor device for an ostomy system , the monitor device comprising: a monitor device housing ; a power unit disposed in the monitor device housing; a processor disposed in the monitor device housing; and a first interface configured to couple the monitor device selectively to a base plate of the ostomy system or an accessory device of the ostomy system, the first interface comprising a plurality of monitor terminals including a primary terminal and a secondary terminal , the primary terminal being configured to form an electrical connection with a primary electrode of the base plate when the monitor device is coupled to the base plate, and the primary terminal being configured to form electrical connection with a primary charge terminal of the accessory device when the monitor device is coupled to the accessory device; the secondary terminal being configured to form an electrical connection with a secondary electrode of the base plate when the monitor device is coupled to the base plate, and the secondary terminal being configured to form electrical connection with a secondary charge terminal of the accessory device when the monitor device is coupled to the accessory device. a monitor device housing ; a power unit disposed in the monitor device housing; a processor disposed in the monitor device housing; and a first interface configured to couple the monitor device selectively to a base plate of the ostomy system or an accessory device of the ostomy system, the first interface comprising a plurality of monitor terminals including a primary terminal and a secondary terminal , the primary terminal being configured to form an electrical connection with a primary electrode of the base plate when the monitor device is coupled to the base plate, and the primary terminal being configured to form electrical connection with a primary charge terminal of the accessory device when the monitor device is coupled to the accessory device; the secondary terminal being configured to form an electrical connection with a secondary electrode of the base plate when the monitor device is coupled to the base plate, and the secondary terminal being configured to form electrical connection with a secondary charge terminal of the accessory device when the monitor device is coupled to the accessory device. the primary terminal being configured to form an electrical connection with a primary electrode of the base plate when the monitor device is coupled to the base plate, and the primary terminal being configured to form electrical connection with a primary charge terminal of the accessory device when the monitor device is coupled to the accessory device; the secondary terminal being configured to form an electrical connection with a secondary electrode of the base plate when the monitor device is coupled to the base plate, and the secondary terminal being configured to form electrical connection with a secondary charge terminal of the accessory device when the monitor device is coupled to the accessory device.
A liquid discharge apparatus configured to discharge a UV-curable ink having a plurality of print modes, the liquid discharge apparatus comprising: a scanning carriage , which scans in a direction perpendicular to the line feed direction, comprising a head unit , the head unit comprising a plurality of spot color heads, wherein each spot color head comprises a plurality of nozzles, a determiner configured to determine the print modes; and a controller configured to change, based on the print mode determined by the determiner , a use nozzle width and a discharge amount of a spot color head in a line feed direction such that a print mode having a low print speed in the line feed direction has a narrower nozzle width and a larger discharge amount than a print mode having a high print speed in the line feed direction, wherein the discharge amount of a spot color head is the discharge amount of the spot color head per unit area per one scan of one head, and wherein the use nozzle width is total length in the line feed direction of the nozzle(s) in use. a scanning carriage , which scans in a direction perpendicular to the line feed direction, comprising a head unit , the head unit comprising a plurality of spot color heads, wherein each spot color head comprises a plurality of nozzles, a determiner configured to determine the print modes; and a controller configured to change, based on the print mode determined by the determiner , a use nozzle width and a discharge amount of a spot color head in a line feed direction such that a print mode having a low print speed in the line feed direction has a narrower nozzle width and a larger discharge amount than a print mode having a high print speed in the line feed direction, wherein the discharge amount of a spot color head is the discharge amount of the spot color head per unit area per one scan of one head, and wherein the use nozzle width is total length in the line feed direction of the nozzle(s) in use.
A pivot (16; 16') for an adjustable pitch blade for a turbine engine fan hub , the pivot comprising: a stud (22; 22') having, at a radially inner end, coupling means for transmitting a twisting torque and an outside thread ; an annular force-decoupling part positioned around the stud and provided at a radially outer end with an outside thread , said force-decoupling part pressing transversely (F2) against the stud at its radially outer end and having no contact with said stud at a radially inner end; an outer rolling bearing having an inside ring mounted to press transversely against the radially outer end of the force-decoupling part; an inner rolling bearing assembled around the radially inner end of the force-decoupling part and held thereby; a pitch transmission ring positioned around the radially inner end of the stud and provided with coupling means co-operating with the coupling means of the stud; a first clamping nut screwed onto the outside thread of the force-decoupling part in order to clamp the outer and inner rolling bearings around the fan hub ; and a second clamping nut screwed onto the outside thread of the stud in order to provide clamping between the stud, the force-decoupling part, and the pitch transmission ring. a stud (22; 22') having, at a radially inner end, coupling means for transmitting a twisting torque and an outside thread ; an annular force-decoupling part positioned around the stud and provided at a radially outer end with an outside thread , said force-decoupling part pressing transversely (F2) against the stud at its radially outer end and having no contact with said stud at a radially inner end; an outer rolling bearing having an inside ring mounted to press transversely against the radially outer end of the force-decoupling part; an inner rolling bearing assembled around the radially inner end of the force-decoupling part and held thereby; a pitch transmission ring positioned around the radially inner end of the stud and provided with coupling means co-operating with the coupling means of the stud; a first clamping nut screwed onto the outside thread of the force-decoupling part in order to clamp the outer and inner rolling bearings around the fan hub ; and a second clamping nut screwed onto the outside thread of the stud in order to provide clamping between the stud, the force-decoupling part, and the pitch transmission ring.
A laser shock peening apparatus for a surface of a workpiece , comprising: a laser generating unit , wherein, the laser generated by the laser generating unit irradiates on an absorbing protective layer on the surface of the workpiece after passing through a confinement layer on a surface of the absorbing protective layer , and then plasma shock waves generated by the absorbing protective layer act on the surface of the workpiece ; and a resonant cavity with an open end; wherein, the resonant cavity is provided with a laser inlet for introducing the laser generated by the laser generating unit into the resonant cavity ; the resonant cavity is further provided with a fluid inlet through which fluid is injected so as to form the confinement layer; and the open end of the resonant cavity contacts with the surface of the absorbing protective layer , so that the confinement layer is restricted in an inner space of the resonant cavity , wherein, the resonant cavity is processed into a shape capable of producing shock waves resonance aggregation, and wherein, the resonant cavity is further provided with a fluid outlet , wherein the height of the fluid outlet is lower than that of the fluid inlet , and the fluid is injected through the fluid inlet and flows out through the fluid outlet in a flowing state. a laser generating unit , wherein, the laser generated by the laser generating unit irradiates on an absorbing protective layer on the surface of the workpiece after passing through a confinement layer on a surface of the absorbing protective layer , and then plasma shock waves generated by the absorbing protective layer act on the surface of the workpiece ; and a resonant cavity with an open end; wherein, the resonant cavity is provided with a laser inlet for introducing the laser generated by the laser generating unit into the resonant cavity ; the resonant cavity is further provided with a fluid inlet through which fluid is injected so as to form the confinement layer; and the open end of the resonant cavity contacts with the surface of the absorbing protective layer , so that the confinement layer is restricted in an inner space of the resonant cavity , wherein, the resonant cavity is processed into a shape capable of producing shock waves resonance aggregation, and wherein, the resonant cavity is further provided with a fluid outlet , wherein the height of the fluid outlet is lower than that of the fluid inlet , and the fluid is injected through the fluid inlet and flows out through the fluid outlet in a flowing state.
A passive anti-icing and/or deicing device , comprising: an icephobic outer layer configured to prevent ice from forming and/or building up on the outer layer by preventing ice from adhering to the outer layer ; a backer film attached to an underside of the icephobic outer layer ; and an adhesive attached to the backer film on an opposite side of the backer film relative to the icephobic outer layer ; wherein the icephobic outer layer includes an elastomeric reservoir at least partially saturated with an icephobic and/or hydrophobic lubricant. an icephobic outer layer configured to prevent ice from forming and/or building up on the outer layer by preventing ice from adhering to the outer layer ; a backer film attached to an underside of the icephobic outer layer ; and an adhesive attached to the backer film on an opposite side of the backer film relative to the icephobic outer layer ; wherein the icephobic outer layer includes an elastomeric reservoir at least partially saturated with an icephobic and/or hydrophobic lubricant.
An apparatus , comprising: a gear comprising a gear hub ; a swing-arm rotationally mounted on the gear hub; and a compressive member circumferentially mounted on the gear hub and the swing-arm to apply a radial clamping force between the swing-arm and the gear hub, wherein torque is frictionally coupled from the gear hub to the swing-arm to lock a capped print head assembly (PHA) in a non-printing location by engaging the swing-arm with a hook of a cap sled assembly. a gear comprising a gear hub ; a swing-arm rotationally mounted on the gear hub; and a compressive member circumferentially mounted on the gear hub and the swing-arm to apply a radial clamping force between the swing-arm and the gear hub, wherein torque is frictionally coupled from the gear hub to the swing-arm to lock a capped print head assembly (PHA) in a non-printing location by engaging the swing-arm with a hook of a cap sled assembly.
A catheter insertion device , comprising: a hollow needle having a distal skin-piercing end opposite a proximal base end , the hollow needle defining a channel in fluidic or pneumatic communication between the distal skin-piercing end and the proximal base end; a plunger slidably disposed over at least a portion of the hollow needle, where the distal skin-piercing end of the hollow needle extends through a distal end of the plunger; a spring ; a catheter slidably disposed over at least a second portion of the hollow needle where the distal skin-piercing end of the hollow needle extends through a distal insertion end of the catheter, the catheter comprising the distal insertion end opposite a proximal connection end , where the proximal connection end of the catheter is configured to be disposed next to the distal end of the plunger; and an expandable chamber having a first opening in fluidic or pneumatic communication with the channel of the hollow needle, the expandable chamber at least partially formed by the proximal base end of the hollow needle and a proximal end of the plunger, the expandable chamber increasing in volume as the plunger moves towards the distal skin-piercing end of the hollow needle, characterized in that the spring is mechanically biased between at least a portion of the proximal base end of the hollow needle and a portion of the plunger, the spring biasing the plunger towards the distal skin-piercing end of the hollow needle. a hollow needle having a distal skin-piercing end opposite a proximal base end , the hollow needle defining a channel in fluidic or pneumatic communication between the distal skin-piercing end and the proximal base end; a plunger slidably disposed over at least a portion of the hollow needle, where the distal skin-piercing end of the hollow needle extends through a distal end of the plunger; a spring ; a catheter slidably disposed over at least a second portion of the hollow needle where the distal skin-piercing end of the hollow needle extends through a distal insertion end of the catheter, the catheter comprising the distal insertion end opposite a proximal connection end , where the proximal connection end of the catheter is configured to be disposed next to the distal end of the plunger; and an expandable chamber having a first opening in fluidic or pneumatic communication with the channel of the hollow needle, the expandable chamber at least partially formed by the proximal base end of the hollow needle and a proximal end of the plunger, the expandable chamber increasing in volume as the plunger moves towards the distal skin-piercing end of the hollow needle, characterized in that the spring is mechanically biased between at least a portion of the proximal base end of the hollow needle and a portion of the plunger, the spring biasing the plunger towards the distal skin-piercing end of the hollow needle.
A diaphragm assembly for use in a turbine, said diaphragm assembly comprising: a diaphragm having a steam path comprising an inner sidewall , an outer sidewall , and a first partition and a second partition extending therebetween, wherein the first partition is spaced apart from the second partition to form a channel through which a fluid can flow; a replacement part disposed in the steam path , characterised in that : the replacement part comprises a first coupon and a second coupon interposed between an inner band and an outer band , the first coupon and the second coupon comprising a contoured shape which sweeps essentially upwardly from a bottom surface to a trailing edge the first coupon and the second coupon aligning with, respectively, the first partition and the second partition ; and a first weld and a second weld that secure the inner band to the inner sidewall and the outer band to the outer sidewall , wherein the first weld and the second weld are deposited outside of the channel. a diaphragm having a steam path comprising an inner sidewall , an outer sidewall , and a first partition and a second partition extending therebetween, wherein the first partition is spaced apart from the second partition to form a channel through which a fluid can flow; a replacement part disposed in the steam path , characterised in that : the replacement part comprises a first coupon and a second coupon interposed between an inner band and an outer band , the first coupon and the second coupon comprising a contoured shape which sweeps essentially upwardly from a bottom surface to a trailing edge the first coupon and the second coupon aligning with, respectively, the first partition and the second partition ; and a first weld and a second weld that secure the inner band to the inner sidewall and the outer band to the outer sidewall , wherein the first weld and the second weld are deposited outside of the channel.
Energy column for supplying electric vehicles with energy, comprising: - a support comprising - a U-shaped channel section with a control box integrated therein, - terminals for the connection of energy lines and/or data lines, - a base element offset relative to the U-shaped channel section , the opening of the U-shaped channel section being located at the front, so that the support stands stably, - a housing having side elements , cover plate and hood for covering an adapter column and the support , - the adapter column having side parts and a base piece , a recess for receiving the base element of the support being formed in the region of the base piece , and the adapter column being designed to receive and secure the support and being used to secure the housing to the support , the support , the adapter column and the housing being mounted in one another, the support being inserted into the adapter column and secured to the latter. - a support comprising - a U-shaped channel section with a control box integrated therein, - terminals for the connection of energy lines and/or data lines, - a base element offset relative to the U-shaped channel section , the opening of the U-shaped channel section being located at the front, so that the support stands stably, - a U-shaped channel section with a control box integrated therein, - terminals for the connection of energy lines and/or data lines, - a base element offset relative to the U-shaped channel section , the opening of the U-shaped channel section being located at the front, so that the support stands stably, - a housing having side elements , cover plate and hood for covering an adapter column and the support , - the adapter column having side parts and a base piece , a recess for receiving the base element of the support being formed in the region of the base piece , and the adapter column being designed to receive and secure the support and being used to secure the housing to the support , the support , the adapter column and the housing being mounted in one another, the support being inserted into the adapter column and secured to the latter.
A three-layer steel strip composite consisting of steel strip having a first microstructure disposed between two steel strips having a second microstructure, wherein (i) the steel strip having the first microstructure is selected from the group consisting of (a) a TRIP steel containing in weight % 0.10 - 0.30 % C, 1.0 - 3.5 % Mn, 0.2 - 0.8 % Si and 0.5 - 2.0 % Al, (b) a TWIP steel containing in weight % between 10 and 40 % manganese and up to 10 % aluminium, (c) a quenched and partitioned steel containing in weight % 0.15 - 0.4% C, 1.0 - 3.0% Mn, 1.0 - 2.5% Si, 0 - 0.5% Mo and 0 -1.0% Cr and (d) a low density steel containing in weight % 0 - 0.2% C, 0 - 2.0% Si, 0 - 5% Mn, 2 - 17% Al, 0 - 3% Cr, 0 -0.2% Ti and 0 - 0.2% Ce, wherein (ii) the steel strip having the second microstructure is selected from the group consisting of an interstitial-free, extra low carbon, ultra low carbon or low carbon steel containing in weight % 0 - 0.1% C, 0 - 1.0% Mn, 0 - 0.1% Si, 0 - 0.1% Al and 0 - 0.1% Cr and wherein (iii) a metal or metal alloy coating comprising zinc, aluminium or an alloy thereof is present on each steel strip having the second microstructure on a surface opposite to the surface contacting the steel strip having the first microstructure.
A method of performing a nuclear magnetic resonance (NMR) measurement, the method comprising: disposing a NMR measurement device in a carrier in an earth formation , the NMR measurement device including a magnetic field source and a transmitting assembly ; applying a static magnetic field into a formation by the magnetic field source , and emitting a plurality of pulse sequences by the transmitting assembly into the formation , the plurality of pulse sequences including at least a first pulse sequence having a first wait time and a second pulse sequence having a second wait time; receiving NMR measurement data including a long wait-time echo train and a short wait-time echo train , the long wait-time echo train is based on the first pulse sequence and the short wait-time echo train is based on the second pulse sequence; transforming, by a processor, the echo trains into volumetric portions including a first fluid volumetric portion; estimating a longitudinal relaxation time for the first fluid volumetric portion; and identifying whether the first fluid volumetric portion is gas or light oil based on the estimated longitudinal relaxation time, characterized in that transforming of the echo trains includes applying a lateral-motion correction of the NMR measurement data and whereby the applying the lateral-motion correction includes identifying a motion artifact in the NMR data. disposing a NMR measurement device in a carrier in an earth formation , the NMR measurement device including a magnetic field source and a transmitting assembly ; applying a static magnetic field into a formation by the magnetic field source , and emitting a plurality of pulse sequences by the transmitting assembly into the formation , the plurality of pulse sequences including at least a first pulse sequence having a first wait time and a second pulse sequence having a second wait time; receiving NMR measurement data including a long wait-time echo train and a short wait-time echo train , the long wait-time echo train is based on the first pulse sequence and the short wait-time echo train is based on the second pulse sequence; transforming, by a processor, the echo trains into volumetric portions including a first fluid volumetric portion; estimating a longitudinal relaxation time for the first fluid volumetric portion; and identifying whether the first fluid volumetric portion is gas or light oil based on the estimated longitudinal relaxation time, characterized in that transforming of the echo trains includes applying a lateral-motion correction of the NMR measurement data and whereby the applying the lateral-motion correction includes identifying a motion artifact in the NMR data.