mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrasonic diagnostic imaging system which is operable to acquire ultrasound image frames which are temporally evenly spaced during a periodic cycle comprising: a source of physiological gating signals for a periodic cycle ; an ultrasonic image acquisition subsystem responsive to the gating signals which is adapted to acquire ultrasound images at predetermined phases of the periodic cycle, the length of time it takes to acquire a single image being a frame acquisition interval (d f ) ; an image processor configured to process acquired ultrasound images; an image sequencer configured to prepare images for display in relative phase sequence; a display , which is responsive to the image processor and image sequencer which displays a live sequence of images over the periodic cycle; and a source of a plurality triggers (T1,T2,T3,T4) arranged to be used in conjunction with the gating signal in order to cause the image acquisition subsystem to acquire a continuous sequence of images during the periodic cycle, characterized in that said triggers are adapted to start image acquisition at different evenly spaced phases of the frame acquisition interval (d f ), said triggers are adapted not to acquire any further images in the continuous sequence of images following a gating signal of a next successive periodic cycle, and at the conclusion of the continuous sequence images acquisition initiated by a trigger at a phase of the frame acquisition interval, the next trigger to be used is a trigger arranged to start at the next-to-occur starting phase of an unused trigger. a source of physiological gating signals for a periodic cycle ; an ultrasonic image acquisition subsystem responsive to the gating signals which is adapted to acquire ultrasound images at predetermined phases of the periodic cycle, the length of time it takes to acquire a single image being a frame acquisition interval (d f ) ; an image processor configured to process acquired ultrasound images; an image sequencer configured to prepare images for display in relative phase sequence; a display , which is responsive to the image processor and image sequencer which displays a live sequence of images over the periodic cycle; and a source of a plurality triggers (T1,T2,T3,T4) arranged to be used in conjunction with the gating signal in order to cause the image acquisition subsystem to acquire a continuous sequence of images during the periodic cycle, characterized in that said triggers are adapted to start image acquisition at different evenly spaced phases of the frame acquisition interval (d f ), said triggers are adapted not to acquire any further images in the continuous sequence of images following a gating signal of a next successive periodic cycle, and at the conclusion of the continuous sequence images acquisition initiated by a trigger at a phase of the frame acquisition interval, the next trigger to be used is a trigger arranged to start at the next-to-occur starting phase of an unused trigger.
A preparation method of an organic light-emitting diode , comprising: forming a first layer and a second layer adjacent to each other, whereby the second layer is laminated on the first layer , forming an interface between the first layer and the second layer , and performing an annealing process thereon, so that the interface between the first layer and the second layer and a surface of the second layer farther away from the first layer form a fold morphology , a vitrification transition temperature of the first layer being less than a vitrification transition temperature of the second layer , and a thermal expansion coefficient of the first layer being greater than a thermal expansion coefficient of the second layer , characterized in that a difference value between the vitrification transition temperature of the first layer and the vitrification transition temperature of the second layer is greater than 50 °C; that an annealing temperature of the annealing process is 8 °C to 40 °C higher than the vitrification transition temperature of the first layer ; and that at an annealing temperature of the annealing process, a ratio of the thermal expansion coefficient of the first layer to the thermal expansion coefficient of the second layer is greater than 2. forming a first layer and a second layer adjacent to each other, whereby the second layer is laminated on the first layer , forming an interface between the first layer and the second layer , and performing an annealing process thereon, so that the interface between the first layer and the second layer and a surface of the second layer farther away from the first layer form a fold morphology , a vitrification transition temperature of the first layer being less than a vitrification transition temperature of the second layer , and a thermal expansion coefficient of the first layer being greater than a thermal expansion coefficient of the second layer , characterized in that a difference value between the vitrification transition temperature of the first layer and the vitrification transition temperature of the second layer is greater than 50 °C; that an annealing temperature of the annealing process is 8 °C to 40 °C higher than the vitrification transition temperature of the first layer ; and that at an annealing temperature of the annealing process, a ratio of the thermal expansion coefficient of the first layer to the thermal expansion coefficient of the second layer is greater than 2.
A process for drilling a multi-lateral well, where the process comprises: a) drilling a first bore of a first bore diameter through overburden rock above a reservoir and casing the bore; b) drilling a second bore of a second, smaller, bore diameter through the first bore and into the reservoir ; characterized by : c) running into the bores an assembly comprising: i) a liner hanger; ii) a tapered liner having a first section with a first liner outer diameter and a second section with a second, smaller liner outer diameter; iii) a whipstock nipple and valve in the first section of the liner; iv) completion equipment installed in the second section of the liner; whereby the liner hanger is anchored in the first bore and the first and second sections of liner extend into the second bore ; d) performing a completion operation in the second section of liner; e) running a whipstock into the first section of liner and milling a window in the first section of liner, adjacent the whipstock ; f) drilling a branched, third bore through the window , running into the third bore a second liner and performing a completion operation in the second liner. a) drilling a first bore of a first bore diameter through overburden rock above a reservoir and casing the bore; b) drilling a second bore of a second, smaller, bore diameter through the first bore and into the reservoir ; characterized by : c) running into the bores an assembly comprising: i) a liner hanger; ii) a tapered liner having a first section with a first liner outer diameter and a second section with a second, smaller liner outer diameter; iii) a whipstock nipple and valve in the first section of the liner; iv) completion equipment installed in the second section of the liner; whereby the liner hanger is anchored in the first bore and the first and second sections of liner extend into the second bore ; i) a liner hanger; ii) a tapered liner having a first section with a first liner outer diameter and a second section with a second, smaller liner outer diameter; iii) a whipstock nipple and valve in the first section of the liner; iv) completion equipment installed in the second section of the liner; d) performing a completion operation in the second section of liner; e) running a whipstock into the first section of liner and milling a window in the first section of liner, adjacent the whipstock ; f) drilling a branched, third bore through the window , running into the third bore a second liner and performing a completion operation in the second liner.
A linear luminaire, comprising a housing body , two end caps , a face casing , and a back plate , wherein: the two end caps are fixed onto two ends of the housing body , respectively; the housing body has a top groove and a bottom groove , the top groove and the bottom groove extend in a length direction with grooving openings oriented in opposite directions; the face casing is fixedly clamped onto the groove opening of the top groove and forms an optical mixing cavity together with the top groove and the two end caps , the optical mixing cavity is configured for accommodating a light-emitting module of the linear luminaire; the back plate is clamped onto the groove opening of the bottom groove to form a power driving cavity together with the bottom groove and the two end caps , the power driving cavity is configured for installing a driving module and wire connection terminals of the linear luminaire, characterized in that the housing body and the two end caps are metallic structural elements; third connecting plates are disposed on inner side surfaces of the two end caps ; a first connecting plate is disposed within the housing body ; the third connecting plates are fixedly connected to the first connecting plate by grounding screws ; and an outer serrated gasket sleeves the grounding screw , and the outer serrated gasket is in contact with the third connecting plate or the first connecting plate . the housing body and the two end caps are metallic structural elements; third connecting plates are disposed on inner side surfaces of the two end caps ; a first connecting plate is disposed within the housing body ; the third connecting plates are fixedly connected to the first connecting plate by grounding screws ; and an outer serrated gasket sleeves the grounding screw , and the outer serrated gasket is in contact with the third connecting plate or the first connecting plate .
An apparatus for mounting a printing plate on a printing carrier such as a printing cylinder or a printing sleeve, the apparatus comprising: a working surface for supporting the printing plate advancing in a feeding direction (X), the working surface comprising an outlet side ; supporting and driving means for the printing carrier arranged downstream of said outlet side and below said working surface , said supporting and driving means for the printing carrier being configured to cause rotation of said printing carrier about its axis so as to carry out mounting of said printing plate in a winding and application step of the printing plate onto said printing carrier ; pre-alignment means for pre-aligning said printing plate on said working surface ; imaging means configured to detect the position of said printing plate and/or said printing carrier ; and control means configured to control said pre-alignment means and said supporting and driving means as a function of information received from said imaging means ; wherein said supporting and driving means are configured to move said printing carrier in a direction transverse with respect to said feeding direction (X) and parallel to the axis of the printing carrier , characterized in that said control means are configured to control the position of said supporting and driving means , and consequently of the carrier , during said winding and application step of the printing plate onto the printing carrier .
An external defibrillator comprising: a capacitor configured to be electrically connected to an electrical energy storage source and capable of delivering a defibrillating shock to a patient; and a controller programmed to: analyze one or more ECG signals from the patient acquired during delivery of chest compressions to the patient, wherein the analysis is performed during delivery of chest compressions to the patient; determine a desirability of a shock to the patient based on the analysis of the one or more ECG signals during the delivery of chest compressions of a CPR cycle comprising a plurality of chest compressions; and after chest compressions of the CPR cycle have been completed, analyze one or more ECG signals acquired in an absence of chest compressions to reconfirm the desirability of the shock to the patient, wherein the external defibrillator is configured to determine whether or not to perform said reconfirmation analysis based on said analysis of the ECG signal from the patient during delivery of chest compressions to the patient. a capacitor configured to be electrically connected to an electrical energy storage source and capable of delivering a defibrillating shock to a patient; and a controller programmed to: analyze one or more ECG signals from the patient acquired during delivery of chest compressions to the patient, wherein the analysis is performed during delivery of chest compressions to the patient; determine a desirability of a shock to the patient based on the analysis of the one or more ECG signals during the delivery of chest compressions of a CPR cycle comprising a plurality of chest compressions; and after chest compressions of the CPR cycle have been completed, analyze one or more ECG signals acquired in an absence of chest compressions to reconfirm the desirability of the shock to the patient, wherein the external defibrillator is configured to determine whether or not to perform said reconfirmation analysis based on said analysis of the ECG signal from the patient during delivery of chest compressions to the patient. analyze one or more ECG signals from the patient acquired during delivery of chest compressions to the patient, wherein the analysis is performed during delivery of chest compressions to the patient; determine a desirability of a shock to the patient based on the analysis of the one or more ECG signals during the delivery of chest compressions of a CPR cycle comprising a plurality of chest compressions; and after chest compressions of the CPR cycle have been completed, analyze one or more ECG signals acquired in an absence of chest compressions to reconfirm the desirability of the shock to the patient, wherein the external defibrillator is configured to determine whether or not to perform said reconfirmation analysis based on said analysis of the ECG signal from the patient during delivery of chest compressions to the patient.
A method for directionally amplifying a sound signal of a hearing device , the method comprising: receiving the sound signal from a microphone of the hearing device ; extracting directional sound signals from the sound signal ; determining a word sequence from each directional sound signal ; determining a semantic representation from each word sequence ; identifying conversations from the semantic representations , wherein each conversation is associated with one or more directional sound signals and wherein each conversation is identified by clustering semantic representations ; processing the sound signal , such that directional sound signals associated with one of the conversations are amplified. receiving the sound signal from a microphone of the hearing device ; extracting directional sound signals from the sound signal ; determining a word sequence from each directional sound signal ; determining a semantic representation from each word sequence ; identifying conversations from the semantic representations , wherein each conversation is associated with one or more directional sound signals and wherein each conversation is identified by clustering semantic representations ; processing the sound signal , such that directional sound signals associated with one of the conversations are amplified.
A stator unit, comprising: a cover including a circumferential wall portion and an end wall portion contiguous with an end of the circumferential wall portion ; a stator accommodated in the cover and having a hollow cylindrical shape; and a mold made of filling resin with which an internal circumferential surface of the stator and a space between the stator and the cover are filled, wherein the end wall portion has a dome portion , the cover includes a rib , which has an annular shape and protrudes from an inner surface of the dome portion , the rib includes a circumferential surface that faces outward, and the circumferential surface defines a region having an axis that coincides with an axis of the stator , wherein the circumferential surface has a diameter smaller than an inside diameter of the stator , and wherein the circumferential surface is adapted to come into contact, along an entire circumference, with the internal circumferential surface at a tip of a jig during a manufacturing process of the stator unit. a cover including a circumferential wall portion and an end wall portion contiguous with an end of the circumferential wall portion ; a stator accommodated in the cover and having a hollow cylindrical shape; and a mold made of filling resin with which an internal circumferential surface of the stator and a space between the stator and the cover are filled, wherein the end wall portion has a dome portion , the cover includes a rib , which has an annular shape and protrudes from an inner surface of the dome portion , the rib includes a circumferential surface that faces outward, and the circumferential surface defines a region having an axis that coincides with an axis of the stator , wherein the circumferential surface has a diameter smaller than an inside diameter of the stator , and wherein the circumferential surface is adapted to come into contact, along an entire circumference, with the internal circumferential surface at a tip of a jig during a manufacturing process of the stator unit.
An outer shield assembly for a medical injector, the outer shield assembly comprising: a hub a needle protruding from said hub ; and a slidable body disposed adjacent to said needle , said body having depth marks defined thereon, wherein during an injection of said needle into a patient, said slidable body is depressed by the patient's skin, said depth marks indicating the extent of depression of said body during the injection thereby providing an indication of depth of injection by said needle , wherein the slidable body is slidably attached to an outer surface of the hub , and includes a small diameter cylinder offset from an axis of the needle , the cylinder extending from a distal surface of the hub and that at the top of the cylinder is a shield portion . a hub a needle protruding from said hub ; and a slidable body disposed adjacent to said needle , said body having depth marks defined thereon, wherein during an injection of said needle into a patient, said slidable body is depressed by the patient's skin, said depth marks indicating the extent of depression of said body during the injection thereby providing an indication of depth of injection by said needle , wherein the slidable body is slidably attached to an outer surface of the hub , and includes a small diameter cylinder offset from an axis of the needle , the cylinder extending from a distal surface of the hub and that at the top of the cylinder is a shield portion .
A liquid pharmaceutical composition comprising: (a) tocilizumab antibody; (b) a histidine buffer; (c) a stabilizer selected from lactic acid or salts thereof; (d) a free amino acid; (e) a surfactant; (f) water for injection; and (g) optionally a salt; wherein the composition has a pH between 5.5 and 7.0. (a) tocilizumab antibody; (b) a histidine buffer; (c) a stabilizer selected from lactic acid or salts thereof; (d) a free amino acid; (e) a surfactant; (f) water for injection; and (g) optionally a salt;
A lighting apparatus comprising: an LED circuit (130; 230) including a plurality of serially connected stages (STG1, STG2, STG3, STG4) configured to receive a modulated rectified voltage, each of the stages (STG1, STG2, STG3, STG4) comprising: a first path including a first resistor (R1; R2) and a first LED (LED1, LED3; LED') connected in series; and a second path connected to the first path in parallel and including a second LED (LED2, LED4; LED") configured to emit light having a color temperature different from that emitted from the first LED (LED1, LED3; LED'); and a driving current controller (150; 250) configured to adjust an intensity of light output from the LED circuit (130; 230) by adjusting currents applied to driving nodes (D1, D2, D3, D4) connected to the respective stages (STG1, STG2, STG3, STG4), depending on a dimming signal associated with a dimming level of the modulated rectified voltage, characterized in that the second LED (LED2, LED4; LED") has a greater number of light emitting cells than the first LED (LED1, LED3; LED'). a first path including a first resistor (R1; R2) and a first LED (LED1, LED3; LED') connected in series; and a second path connected to the first path in parallel and including a second LED (LED2, LED4; LED") configured to emit light having a color temperature different from that emitted from the first LED (LED1, LED3; LED'); and a driving current controller (150; 250) configured to adjust an intensity of light output from the LED circuit (130; 230) by adjusting currents applied to driving nodes (D1, D2, D3, D4) connected to the respective stages (STG1, STG2, STG3, STG4), depending on a dimming signal associated with a dimming level of the modulated rectified voltage, characterized in that the second LED (LED2, LED4; LED") has a greater number of light emitting cells than the first LED (LED1, LED3; LED').
A method for generating a freeroom for a mast element in a ground , where the method comprises the steps: a) drilling a first annular recess into the ground using a drill rig having a first slot drill mounted thereto, the first slot drill being replaceable and having a first diameter , b) drilling a second annular recess in the ground using the drill rig having a second slot drill mounted thereto instead of the first slot drill , the second slot drill being replaceable and having a second diameter smaller than the first diameter ; - the first annular recess having the first diameter and a first depth ; - the second annular recess having the second diameter and a second depth which is larger than the first depth ; and - after drilling the recesses the second recess being located within the first recess , the second annular recess being arranged to receive the mast element and surround a first core (20K1) of the ground and being surrounded by the first annular recess ; and - there is, defined between the first annular recess and the second annular recess , a second core (20K2) which can be removed to generate the freeroom , wherein the method comprises a further step of generating the freeroom by removing the second core (20K2). a) drilling a first annular recess into the ground using a drill rig having a first slot drill mounted thereto, the first slot drill being replaceable and having a first diameter , b) drilling a second annular recess in the ground using the drill rig having a second slot drill mounted thereto instead of the first slot drill , the second slot drill being replaceable and having a second diameter smaller than the first diameter ; - the first annular recess having the first diameter and a first depth ; - the second annular recess having the second diameter and a second depth which is larger than the first depth ; and - after drilling the recesses the second recess being located within the first recess , the second annular recess being arranged to receive the mast element and surround a first core (20K1) of the ground and being surrounded by the first annular recess ; and - there is, defined between the first annular recess and the second annular recess , a second core (20K2) which can be removed to generate the freeroom , - the first annular recess having the first diameter and a first depth ; - the second annular recess having the second diameter and a second depth which is larger than the first depth ; and - after drilling the recesses the second recess being located within the first recess , the second annular recess being arranged to receive the mast element and surround a first core (20K1) of the ground and being surrounded by the first annular recess ; and - there is, defined between the first annular recess and the second annular recess , a second core (20K2) which can be removed to generate the freeroom ,