mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine having a casing, a shaft rotatably mounted in the casing, and a compressor rotor and a turbine rotor mounted to the shaft within the casing, the engine comprising and characterized by: a field magnet mounted in an interstage spacer of the compressor rotor substantially adjacent to a labyrinth seal formed on a guide vane shroud of the casing; a circumferential array of conductive coils mounted in the casing substantially adjacent to a circle defined by revolution of the field magnet within the casing; and an electrical system interface module electrically connected to the circumferential array of conductive coils. a field magnet mounted in an interstage spacer of the compressor rotor substantially adjacent to a labyrinth seal formed on a guide vane shroud of the casing; a circumferential array of conductive coils mounted in the casing substantially adjacent to a circle defined by revolution of the field magnet within the casing; and an electrical system interface module electrically connected to the circumferential array of conductive coils.
An orthodontic treatment tracking method for tracking progress of a tooth alignment treatment, the method comprising: receiving a patient's mouth image (400; 500; 600; 650) from a portable electronic device; comparing the patient's mouth image (400; 500; 600; 650) with a tooth alignment treatment checkpoint image (420; 520; 610; 660) by determining a current tooth position indicative shape (412; 512; 658) from the patient's mouth image (400; 500; 600; 650), wherein the current tooth position indicative shape comprises a line representing relative positions of teeth of the patient; determining a treatment checkpoint tooth position indicative shape (432; 532; 668) from the tooth alignment treatment checkpoint image (420; 520; 610; 660), wherein the treatment checkpoint tooth position indicative shape comprises a line representing relative positions of teeth at the treatment checkpoint; and comparing the current tooth position indicative shape (412; 512; 658) with the treatment checkpoint tooth position indicative shape (432; 532; 668) to determine if the tooth alignment treatment has reached a treatment checkpoint; and generating an alignment treatment progress indication indicating whether the tooth alignment treatment has reached the treatment checkpoint. receiving a patient's mouth image (400; 500; 600; 650) from a portable electronic device; comparing the patient's mouth image (400; 500; 600; 650) with a tooth alignment treatment checkpoint image (420; 520; 610; 660) by determining a current tooth position indicative shape (412; 512; 658) from the patient's mouth image (400; 500; 600; 650), wherein the current tooth position indicative shape comprises a line representing relative positions of teeth of the patient; determining a treatment checkpoint tooth position indicative shape (432; 532; 668) from the tooth alignment treatment checkpoint image (420; 520; 610; 660), wherein the treatment checkpoint tooth position indicative shape comprises a line representing relative positions of teeth at the treatment checkpoint; and comparing the current tooth position indicative shape (412; 512; 658) with the treatment checkpoint tooth position indicative shape (432; 532; 668) to determine if the tooth alignment treatment has reached a treatment checkpoint; and generating an alignment treatment progress indication indicating whether the tooth alignment treatment has reached the treatment checkpoint.
An intravascular ultrasound (IVUS) device, comprising: a scanner assembly including: a ferrule (301, 701) including a lumen region; a plurality of transducer control circuits; a uni-body attached to the ferrule and surrounding at least a portion of the ferrule (301, 701), the uni-body including a polymeric substance doped with acoustic dampening material; and a flex circuit mounted onto the uni-body; wherein the transducer control circuits are attached to the flex circuit; wherein the flex circuit includes a transducer array and electrical traces formed on a film layer, the electrical traces being configured to carry signals between transducers of the transducer array and the transducer control circuits wherein the flex circuit is wrapped around the uni-body; and wherein the flex circuit is fixedly secured to the uni-body with an adhesive. a scanner assembly including: a ferrule (301, 701) including a lumen region; a plurality of transducer control circuits; a uni-body attached to the ferrule and surrounding at least a portion of the ferrule (301, 701), the uni-body including a polymeric substance doped with acoustic dampening material; and a flex circuit mounted onto the uni-body; a ferrule (301, 701) including a lumen region; a plurality of transducer control circuits; a uni-body attached to the ferrule and surrounding at least a portion of the ferrule (301, 701), the uni-body including a polymeric substance doped with acoustic dampening material; and a flex circuit mounted onto the uni-body; wherein the transducer control circuits are attached to the flex circuit; wherein the flex circuit includes a transducer array and electrical traces formed on a film layer, the electrical traces being configured to carry signals between transducers of the transducer array and the transducer control circuits wherein the flex circuit is wrapped around the uni-body; and wherein the flex circuit is fixedly secured to the uni-body with an adhesive.
A method for controlling one or more injection moulding- or die casting machines or respectively a production cell, having repeatable sequences for the production of injection-moulded or respectively die-cast parts, via a machine control, and an operating unit, constructed as a man-machine interface, which has a first operating field and a second operating field, wherein the production parameterization and the configuration of the production sequence can be inputted and changed by means of keys of the first operating field, while viewing the operating unit or respectively a main screen, and the operative control inputs by means of machine movement keys of the second operating field, while viewing the machine, characterized in that at least a portion of the operative control inputs for the machine movement are made by means of haptic keys (22, 46), programmable for their function, applied on the surface of a screen itself, each having an associated screen- or respectively symbol field, wherein the machine movement keys are programmed and activated in a case-related manner with the screen field directly associated with the individual keys (22, 46).
A LED lamp device suitable for replacing a traditional fluorescent lamp, comprising a housing, a PCB and two lamp caps, the housing consisting of a lampshade and a radiator fastened with each other, each one of the two lamp caps being sleeved on two sides of the housing, more than one LED lamp sets interconnected via at least a first and second relay and LED driving control units being arranged on the PCB, a heat conductive double-sided silicone tape being stuck between the PCB and the radiator, the LED driving control unit comprising an input signal module, a protection module and a rectifier filter module, the LED lamp device being characterised in that the LED driving control unit further comprises a voltage detection module arranged behind the rectifier filter module to detect the output voltage of the rectifier filter module, a switching module connected with the voltage detection module to achieve switchover of the LED lamp sets, and a linear constant current module connected with the switching module; wherein the voltage detection module consists of a first resistor and a second resistor, which are connected in series between a positive output end and a negative output end of the rectifier filter module for voltage division, and a first capacitor connected with the second resistor in parallel; and wherein the switching module consists of the at least first relay, the at least second relay and a field effect transistor, a grid end of the field effect transistor is connected with a common end of the first resistor and the second resistor, a drain end D of the field effect transistor is connected with a negative end (VCC-) of the second relay, a source end of the field effect transistor is connected with a negative output end of the rectifier filter module, wherein the output of the switching module is connected with one or more LED lamp sets, in each lamp set, one or more LED lamps are connected in series, and each LED lamp is connected with one or more compensation resistors in series; wherein when the output voltage of the rectifier filter module is normal, the voltage on R5 does not reach the turn-on voltage of the field effect transistor Q, and both the first relay and the second relay are in normally closed state, and wherein, when the output voltage of the rectifier filter module is higher, the voltage on the first resistor reaches to above the turn-on voltage of the field effect transistor the field effect transistor is turned on, and the at least first and second relays (S1, S2) are converted from normally closed state to normally open state, thereby changing the original series-parallel connection of the more than one LED lamp sets thereby changing the number of LED lamps in serial connection and, wherein the linear constant current module consists of two IC linear driving chips, the input end of each of the IC linear driving chips is connected with a second normally open end of the second relay, and the output end thereof is connected with the negative output end of the rectifier filter module.
A method of establishing bearers for a device in a wireless communication network, comprising: collecting for the device data over a period of time from communication sessions the device participates in, the communication sessions supported by a first and second bearer for the network wherein the first bearer transports packets of the second bearer between nodes of the network; calculating from the collected data a likelihood the first bearer will be established for the device at one or more different time values, and predicting the first bearer will be established for the device at a time value if the likelihood of establishment at that time value exceeds a specified threshold; and initiating establishment of the first bearer to establish the first bearer for the predicted time value. collecting for the device data over a period of time from communication sessions the device participates in, the communication sessions supported by a first and second bearer for the network wherein the first bearer transports packets of the second bearer between nodes of the network; calculating from the collected data a likelihood the first bearer will be established for the device at one or more different time values, and predicting the first bearer will be established for the device at a time value if the likelihood of establishment at that time value exceeds a specified threshold; and initiating establishment of the first bearer to establish the first bearer for the predicted time value.
A stent folding and loading device characterised by a hollow rail which has an arched cross section, as well as a guide rail which forms an engagement web which faces the opening of the hollow rail and which extends in the longitudinal direction of the guide rail, wherein the hollow rail at its proximal end is pivotably connected to a proximal end of the guide rail, and the hollow rail is pivotable relative to the guide rail, between a closed position, in which the longitudinal axes (X, X H) of the guide rail and the hollow rail run in a parallel manner, and an opened position, in which the longitudinal axes (X, X H) of the guide rail and the hollow rail run angled to one another.
A water soluble pharmaceutical composition, comprising at least one therapeutically active hydrophobic substance and at least one compound selected from sialoglycosphingolipids and a mixture of sialoglycosphingolipids and glycosphingolipids, wherein at least one of said therapeutically active substances is a drug with hydrophobic characteristics, wherein said glycosphingolipids are selected from among the gangliosides, and wherein said gangliosides are gangliosides nanomicelles non-covalently coated with human seric albumin, recombinant human seric albumin or with bovine albumin.
A pneumatic tire comprising: a block row in which blocks are arranged in a row around a tire circumferential direction, each of the blocks including a main body portion which extends towards a tire shoulder side and is formed as far as a ground contact edge in a tire width direction, and a shoulder side wall (45,46,48) at a location which is further to an outer side in the tire width direction than the ground contact edge in the tire width direction; a step portion that is formed at a side wall of each of the blocks configuring the block row so as to project from the side wall in the tire circumferential direction, a height of the step portion being lower than a tread face of the main body portion and higher than a lug groove that is between the blocks, and the step portion extending further to the outer side in the tire width direction than the ground contact edge in the tire width direction, characterized in that the step portion exists from a tire equatorial plane side end portion of the main body portion, crossing the ground contact edge in the tire width direction, to the tire shoulder portion. a block row in which blocks are arranged in a row around a tire circumferential direction, each of the blocks including a main body portion which extends towards a tire shoulder side and is formed as far as a ground contact edge in a tire width direction, and a shoulder side wall (45,46,48) at a location which is further to an outer side in the tire width direction than the ground contact edge in the tire width direction; a step portion that is formed at a side wall of each of the blocks configuring the block row so as to project from the side wall in the tire circumferential direction, a height of the step portion being lower than a tread face of the main body portion and higher than a lug groove that is between the blocks, and the step portion extending further to the outer side in the tire width direction than the ground contact edge in the tire width direction, characterized in that the step portion exists from a tire equatorial plane side end portion of the main body portion, crossing the ground contact edge in the tire width direction, to the tire shoulder portion.
Compound of formula in which R2 is H, OH, (CH 2)n-CH 3, with n=2, 4 or 6, a glucopyranose or a glucofuranose; R3 is H, OH, CH 2 OH or a glucofuranose; R4 is H, OH, CH 3, CH 2 OH, a glucofuranose, C 6 H 5, C 10 H 7, C 6 H 4 X or C 10 H 6 X with X= F, Cl, Br or I; R X1 is H or an aminoacid chosen among tryptophane, lysine, methionine, phenylalanine, threonine, valine, leucine, isoleucine, arginine or histidine. R2 is H, OH, (CH 2)n-CH 3, with n=2, 4 or 6, a glucopyranose or a glucofuranose; R3 is H, OH, CH 2 OH or a glucofuranose; R4 is H, OH, CH 3, CH 2 OH, a glucofuranose, C 6 H 5, C 10 H 7, C 6 H 4 X or C 10 H 6 X with X= F, Cl, Br or I; R X1 is H or an aminoacid chosen among tryptophane, lysine, methionine, phenylalanine, threonine, valine, leucine, isoleucine, arginine or histidine.
Operating circuit for a light source comprising: - an input for receiving a supply voltage (111; 160), - a power factor correction circuit, and - control device configured to control the operating circuit as a function of control signals, which are encoded in phase sections (115, 116) and/or phase sections (171, 172, 176, 176, 177) of the supply voltage (111; 160), characterized in that the control device is configured to detect a phase section (115, 116) and/or phase section (171, 172, 176, 178) as a function of a behavior of the power factor correction circuit. - an input for receiving a supply voltage (111; 160), - a power factor correction circuit, and - control device configured to control the operating circuit as a function of control signals, which are encoded in phase sections (115, 116) and/or phase sections (171, 172, 176, 176, 177) of the supply voltage (111; 160),
A method comprising: a step of positioning a composite layup over a die, wherein: the composite layup comprises a planar portion and a non-planar portion, extending away from the planar portion in a direction away from the die, and a step of positioning a caul over the non-planar portion of the composite layup, wherein: the caul is configured to conform to a surface of the non-planar portion; a step of positioning a mandrel over the caul, wherein: the caul is disposed between the mandrel and the non-planar portion, and a difference between a coefficient of thermal expansion of the caul and a CTE of the composite layup is less than a difference between the CTE of the mandrel and the CTE of the caul; a step of positioning a bladder over the mandrel and over the planar portion of the composite layup; a step of heating the composite layup using an induction heater; and a step of applying pressure using the bladder onto the mandrel and the planar portion of the composite layup. a step of positioning a composite layup over a die, wherein: the composite layup comprises a planar portion and a non-planar portion, extending away from the planar portion in a direction away from the die, and a step of positioning a caul over the non-planar portion of the composite layup, wherein: the caul is configured to conform to a surface of the non-planar portion; a step of positioning a mandrel over the caul, wherein: the caul is disposed between the mandrel and the non-planar portion, and a difference between a coefficient of thermal expansion of the caul and a CTE of the composite layup is less than a difference between the CTE of the mandrel and the CTE of the caul; the caul is disposed between the mandrel and the non-planar portion, and a difference between a coefficient of thermal expansion of the caul and a CTE of the composite layup is less than a difference between the CTE of the mandrel and the CTE of the caul; a step of positioning a bladder over the mandrel and over the planar portion of the composite layup; a step of heating the composite layup using an induction heater; and a step of applying pressure using the bladder onto the mandrel and the planar portion of the composite layup.
Foundation for a wind turbine, comprising base means with a center zone and an outer zone, wherein the outer zone is configured for carrying all of the weight of the wind turbine, wherein in the center zone, the base means comprise a chamber, wherein the foundation further comprises energy storage means, wherein the energy storage means comprise a flywheel pivotally arranged within the chamber for storing rotational energy, and wherein the energy storage means further comprise transmission means for transforming energy of a wind turbine into rotational energy of the flywheel and for transforming rotational energy of the flywheel into electrical energy, wherein the transmission means comprise a flywheel electric motor for transforming electrical energy into rotational energy of the flywheel, characterized in that the transmission means comprise electric control means for providing electrical energy from the grid to the flywheel electric motor.
A method for operating a speed control system of a vehicle, comprising: identifying a torque required to achieve a desired operating parameter of the vehicle; and assessing whether the required torque exceeds a predetermined maximum positive torque limit of the speed control system; the method characterised by: when the required torque exceeds the predetermined maximum positive torque limit, determining if it is appropriate to increase the predetermined maximum positive torque limit; and when it is determined that it is appropriate to do so, increasing the predetermined maximum positive torque limit. identifying a torque required to achieve a desired operating parameter of the vehicle; and assessing whether the required torque exceeds a predetermined maximum positive torque limit of the speed control system; the method characterised by: when the required torque exceeds the predetermined maximum positive torque limit, determining if it is appropriate to increase the predetermined maximum positive torque limit; and when it is determined that it is appropriate to do so, increasing the predetermined maximum positive torque limit. when the required torque exceeds the predetermined maximum positive torque limit, determining if it is appropriate to increase the predetermined maximum positive torque limit; and when it is determined that it is appropriate to do so, increasing the predetermined maximum positive torque limit.
A method of determining the mechanical strength of a bone from a digitised 2D image, obtained by imaging and chosen in a region having a trabecular structure, characterised in that a correlation is made between the bone mineral density BMD determined from said 2D image by any means suited to said type of image and a structure parameter obtained from the same 2D image.
A pellet of a liquid crystal polyester resin composition, comprising: a liquid crystal polyester resin; and an inorganic filler, characterized in that the pellet has voids with a sphere equivalent diameter of 10 μm to 1000 μm, an abundance ratio of voids having a sphere equivalent diameter of less than 400 μm in a total amount of the voids is in a range of 40% to 90%, and an average number of the voids in one pellet having a length of 1 mm to 5 mm and a maximum diameter of 1 mm to 3 mm is in a range of 4 to 9, wherein the sphere equivalent diameter, the abundance ratio of voids, and the average number of the voids in one pellet are determined in accordance with the description. a liquid crystal polyester resin; and an inorganic filler, characterized in that the pellet has voids with a sphere equivalent diameter of 10 μm to 1000 μm, an abundance ratio of voids having a sphere equivalent diameter of less than 400 μm in a total amount of the voids is in a range of 40% to 90%, and an average number of the voids in one pellet having a length of 1 mm to 5 mm and a maximum diameter of 1 mm to 3 mm is in a range of 4 to 9, wherein the sphere equivalent diameter, the abundance ratio of voids, and the average number of the voids in one pellet are determined in accordance with the description.
An anchoring device for use with a subcutaneous lead (50, 200) comprising: one or more arms (110, 112); a body coupling the one or more arms (110, 112) together and having a nose on one end thereof; and characterized by an attachment feature configured to pass through or into a suture hole in a distal tip of the subcutaneous lead (50, 200). one or more arms (110, 112); a body coupling the one or more arms (110, 112) together and having a nose on one end thereof; and characterized by an attachment feature configured to pass through or into a suture hole in a distal tip of the subcutaneous lead (50, 200).