mhurhangee/ep-ind-claims huggingface dataset:
A taphole drill comprising a primary pivot to which a jib arm is mounted at a first end which jib arm divided into a first and a second part at a jib arm pivot point, a drill guide fixed to an end of the first part; a control arm linked to the first part of the jib arm at a position intermediate the jib arm pivot point and the end to which the drill guide is fixed, and the other end of the control arm being connected to a dual position pivot point which is moveable from a first pivot position when the drill is in a parked position to a second pivot position different to the first when the drill is in the drilling position.
A floating assembly for wave energy use comprising four floats kinematically attached to a rectangular frame and connected to a means for converting wave energy into electric energy, wherein in the top view the floats are arranged in a snake-like pattern in the head-stern direction along the rectangular frame, they alternate along parallel sides of the rectangular frame and are offset from each other, wherein a front float pair comprises a first right float and a second left float and a rear float pair comprises a third right float and a fourth left float, the assembly additionally comprises small frames kinematically coupled with the rectangular frame, the number of said small frames is equal to the number of the floats, and each float is movably connected to the small frame by two parallel horizontally arranged arms (3, 4), main and auxiliary ones, characterised in that the main and auxiliary arms (3, 4) of each float are connected, respectively, to main and auxiliary torsion bars of the assembly, the main arms of the front float pair and the rear float pair, respectively, are interconnected by a rod and linkage arms with the possibility of their synchronous rotation in one direction, wherein the rod of the main arms of the front float pair is located on top and the linkage arms have upward orientation, the rod of the main arms of the rear float pair is located below and the linkage arms have downward orientation, the front and rear pairs of main arms are interconnected by a linkage rod with the possibility of their synchronous rotation in opposite directions, and the means for converting wave energy into electric energy comprises a hydraulic accumulator, a hydraulic motor, an electric generator and double-acting hydraulic cylinders, one of said double-acting hydraulic cylinders is located between the linkage rod and the rectangular frame, while the others are located between the main and auxiliary arms (3, 4) of each float, and are intended to transform mechanical energy resulting from floats up and down movements and/or their swinging in the head-stern direction into the energy generated through power fluid pressure change in the hydraulic cylinder chambers in the process of piston movement and accumulated in the hydraulic accumulator, the output of which is connected to the hydraulic motor kinematically coupled with the electric generator shaft.
A portable interdental toothbrush comprising: a cleaning solution tube having a filling space filled with a cleaning solution and a discharge hole for discharging the cleaning solution; and a brush body in which a fixing portion press-fitted into the discharge hole of the cleaning solution tube is formed on one end and a brush is attached on the other end, wherein a plurality of outflow grooves are formed in the fixing portion of the brush body in the longitudinal direction of the fixing portion such that the cleaning solution is discharged to the brush along the outflow grooves of the fixing portion when a pressure is applied to the cleaning solution tube, characterized in that a plate is formed on an outer surface of the outflow grooves of the fixing portion of the brush body in a slanted direction to the outside brush, and the plate is adapted to discharge the cleaning solution when a pressure is applied to the cleaning solution tube and to prevent the cleaning solution from discharging when no pressure is applied to the cleaning solution tube, or fine bristles are formed extending into the outflow grooves on the outer surface of the outflow grooves of the fixing portion of the brush body. a cleaning solution tube having a filling space filled with a cleaning solution and a discharge hole for discharging the cleaning solution; and a brush body in which a fixing portion press-fitted into the discharge hole of the cleaning solution tube is formed on one end and a brush is attached on the other end, wherein a plurality of outflow grooves are formed in the fixing portion of the brush body in the longitudinal direction of the fixing portion such that the cleaning solution is discharged to the brush along the outflow grooves of the fixing portion when a pressure is applied to the cleaning solution tube, characterized in that a plate is formed on an outer surface of the outflow grooves of the fixing portion of the brush body in a slanted direction to the outside brush, and the plate is adapted to discharge the cleaning solution when a pressure is applied to the cleaning solution tube and to prevent the cleaning solution from discharging when no pressure is applied to the cleaning solution tube, or fine bristles are formed extending into the outflow grooves on the outer surface of the outflow grooves of the fixing portion of the brush body.
An actuator for a fly-by-wire system comprising: a plurality of linear motors; and a carriage operatively connected to each linear motor to be driven by each of the linear motors, wherein the carriage includes a plurality of legs, and wherein each leg corresponds to a respective one of the linear motors, characterised in that the actuator comprises a housing surrounding the linear motors and the carriage, wherein the housing includes a hole to accommodate for the linear motion of a leg of the carriage, and in that a plurality of linear variable differential transformers (LVDT) are housed within the carriage to measure the absolute displacement of the carriage, wherein each LVDT corresponds to a respective one of the linear motors, and wherein each leg houses a respective one of the LVDTs. a plurality of linear motors; and a carriage operatively connected to each linear motor to be driven by each of the linear motors, wherein the carriage includes a plurality of legs, and wherein each leg corresponds to a respective one of the linear motors, characterised in that the actuator comprises a housing surrounding the linear motors and the carriage, wherein the housing includes a hole to accommodate for the linear motion of a leg of the carriage, and in that a plurality of linear variable differential transformers (LVDT) are housed within the carriage to measure the absolute displacement of the carriage, wherein each LVDT corresponds to a respective one of the linear motors, and wherein each leg houses a respective one of the LVDTs.
A computer-implemented method comprising: receiving, from a requester, authentication data for providing access to a resource to a user, the authentication data encapsulating data required by both a first authentication solution and a second authentication solution both for providing access to a resource, the first authentication solution and the second authentication solution differing in authentication modality with the second authentication solution utilizing at least one machine learning model; initiating, using the received authentication data, both of the first authentication solution and the second authentication solution; receiving authentication results from both of the first authentication solution and the second authentication solution; providing the requester with access to the resource if the both of the received authentication results indicate that authentication of the user was successful; and using output of the first authentication solution to train the second authentication solution; preventing the requester from accessing the resource if at least one of the authentication results indicate that the authentication of the user was not successful: and providing an indication to the requester that the authentication of the user was not successful. receiving, from a requester, authentication data for providing access to a resource to a user, the authentication data encapsulating data required by both a first authentication solution and a second authentication solution both for providing access to a resource, the first authentication solution and the second authentication solution differing in authentication modality with the second authentication solution utilizing at least one machine learning model; initiating, using the received authentication data, both of the first authentication solution and the second authentication solution; receiving authentication results from both of the first authentication solution and the second authentication solution; providing the requester with access to the resource if the both of the received authentication results indicate that authentication of the user was successful; and using output of the first authentication solution to train the second authentication solution; preventing the requester from accessing the resource if at least one of the authentication results indicate that the authentication of the user was not successful: and providing an indication to the requester that the authentication of the user was not successful.
An air supply system on a vehicle for inflating and deflating a tyre, said system comprising a compressor connected to a drier having drying material to extract water from the air and a deflation line connectable between the tyre and the dryer, said air dryer operable in a first mode in which air passing through the dryer in a first direction is dried by the dryer and a second regeneration mode wherein air passes through the dryer in a direction opposite to the first direction to remove water collected by the dryer, wherein the air used for the regeneration is air deflated from the tyre, characterised in that the system is configured to calculate a first value representing a volume of air deflated from the tyre and a second value representing a volume of air needed for regeneration and compare said first and second values to calculate if there is sufficient deflated air for regeneration.
A handpiece for interfacing with an instrument tip, the handpiece comprising: a tube end comprising an interface at a distalmost end thereof and configured to attach to the instrument tip, characterized by the tube end comprising a retention seal channel about an exterior of the tube end; a retention seal fixedly positioned in the retention seal channel, the retention seal comprising a sealing ring channel about an exterior of the retention seal; an elastically-deformable sealing ring press-fit into the sealing ring channel such that the sealing ring is immovable in a longitudinal direction of the tube end; and an outer sheath positioned about the tube end such that the outer sheath and tube end sandwich the sealing ring and at least a portion of the retention seal. a tube end comprising an interface at a distalmost end thereof and configured to attach to the instrument tip, characterized by the tube end comprising a retention seal channel about an exterior of the tube end; a retention seal fixedly positioned in the retention seal channel, the retention seal comprising a sealing ring channel about an exterior of the retention seal; an elastically-deformable sealing ring press-fit into the sealing ring channel such that the sealing ring is immovable in a longitudinal direction of the tube end; and an outer sheath positioned about the tube end such that the outer sheath and tube end sandwich the sealing ring and at least a portion of the retention seal.
A light emitting diode (42, 50) mounted on a lead frame comprising: ▪ a semiconductor substrate (46, 51); ▪ a first epitaxial region (45, 52) of Group III nitride on the substrate, the epitaxial region having a first conductivity type; ▪ a second epitaxial region (41, 53) of Group III nitride on the first epitaxial region, the second epitaxial region having the opposite conductivity type from the first epitaxial region; ▪ the first and second epitaxial regions forming a p-n junction (43, 58) therebetween; ▪ a metal contact (47, 55) on the second epitaxial region opposite from the first epitaxial region; and ▪ a Group III nitride isolation region (44, 54) surrounding the second epitaxial region having an increased resistivity compared to the second epitaxial region for electrically isolating portions of the p-n junction, characterised by: ▪ a die attach material (56, 60) that melts at a lower temperature than the metal contact (47, 55) between the metal contact and the lead frame; ▪ wherein the first epitaxial region includes a portion that extends outwardly beyond an outer periphery of the metal contact; ▪ wherein the metal contact (47, 55) is attached to the lead frame by the die attach material with the isolation region electrically isolating portions of the p-n junction from the lead frame and the die attach material; and ▪ wherein the Group III isolation region is on the portion of the first epitaxial regionthat extends outwardly beyond the outer periphery of the metal contact. ▪ a semiconductor substrate (46, 51); ▪ a first epitaxial region (45, 52) of Group III nitride on the substrate, the epitaxial region having a first conductivity type; ▪ a second epitaxial region (41, 53) of Group III nitride on the first epitaxial region, the second epitaxial region having the opposite conductivity type from the first epitaxial region; ▪ the first and second epitaxial regions forming a p-n junction (43, 58) therebetween; ▪ a metal contact (47, 55) on the second epitaxial region opposite from the first epitaxial region; and ▪ a Group III nitride isolation region (44, 54) surrounding the second epitaxial region having an increased resistivity compared to the second epitaxial region for electrically isolating portions of the p-n junction, ▪ a die attach material (56, 60) that melts at a lower temperature than the metal contact (47, 55) between the metal contact and the lead frame; ▪ wherein the first epitaxial region includes a portion that extends outwardly beyond an outer periphery of the metal contact; ▪ wherein the metal contact (47, 55) is attached to the lead frame by the die attach material with the isolation region electrically isolating portions of the p-n junction from the lead frame and the die attach material; and ▪ wherein the Group III isolation region is on the portion of the first epitaxial regionthat extends outwardly beyond the outer periphery of the metal contact.
Polyterpenic compound corresponding to formula I below: with n = 3, m = 0 or 1, R 1, R 2 and R 3, independently of each other a methyl or a hydrogen atom and R 4 is an ethyl or methyl group, with the exclusion of the compounds corresponding in formula I to n=3, m=0, R 1 =H and R 4 =methyl or ethyl. with n = 3, m = 0 or 1, R 1, R 2 and R 3, independently of each other a methyl or a hydrogen atom and R 4 is an ethyl or methyl group, with the exclusion of the compounds corresponding in formula I to n=3, m=0, R 1 =H and R 4 =methyl or ethyl.
Kitchen appliance; wherein the kitchen appliance comprises, - a container for holding a foodstuff; - a temperature adjustment unit, which is designed to adjust the temperature of the container; - at least one temperature sensor (110, 111), which is designed to capture temperature data (210, 211) in respect of a temperature of the container and/or of the foodstuff; - a motor, which is designed to drive a mixing tool in the container, in order to mix the foodstuff; and - a control unit, which is designed - to operate the temperature adjustment unit, in order during a temperature adjustment operation to adjust the temperature of the foodstuff in the container to a target temperature; - on the basis of the temperature data (210, 211) to determine an estimated value of a contents temperature of the foodstuff in the container; - to determine a deviation of the estimated value of the contents temperature from the target temperature; and - to adjust a mixing mode of the mixing tool during the temperature adjustment operation as a function of the deviation of the estimated value of the contents temperature from the target temperature. - a container for holding a foodstuff; - a temperature adjustment unit, which is designed to adjust the temperature of the container; - at least one temperature sensor (110, 111), which is designed to capture temperature data (210, 211) in respect of a temperature of the container and/or of the foodstuff; - a motor, which is designed to drive a mixing tool in the container, in order to mix the foodstuff; and - a control unit, which is designed - to operate the temperature adjustment unit, in order during a temperature adjustment operation to adjust the temperature of the foodstuff in the container to a target temperature; - on the basis of the temperature data (210, 211) to determine an estimated value of a contents temperature of the foodstuff in the container; - to determine a deviation of the estimated value of the contents temperature from the target temperature; and - to adjust a mixing mode of the mixing tool during the temperature adjustment operation as a function of the deviation of the estimated value of the contents temperature from the target temperature. - to operate the temperature adjustment unit, in order during a temperature adjustment operation to adjust the temperature of the foodstuff in the container to a target temperature; - on the basis of the temperature data (210, 211) to determine an estimated value of a contents temperature of the foodstuff in the container; - to determine a deviation of the estimated value of the contents temperature from the target temperature; and - to adjust a mixing mode of the mixing tool during the temperature adjustment operation as a function of the deviation of the estimated value of the contents temperature from the target temperature.
A hardware device for use in a cloud infrastructure, comprising: a first interface configured to receive an application message from an application supported by the cloud infrastructure; at least one processor configured to digitally sign said application message; and a second interface configured to output the digitally signed application message, wherein said hardware device is configured to bind with a controller of a client infrastructure using a cryptographic key exchange between the hardware device and the controller of the client infrastructure, to thereby bind said hardware device to a security domain associated with said controller of the client infrastructure. a first interface configured to receive an application message from an application supported by the cloud infrastructure; at least one processor configured to digitally sign said application message; and a second interface configured to output the digitally signed application message, wherein said hardware device is configured to bind with a controller of a client infrastructure using a cryptographic key exchange between the hardware device and the controller of the client infrastructure, to thereby bind said hardware device to a security domain associated with said controller of the client infrastructure.
A PTK2 inhibitor for use in the treatment of a cancer patient whose cancer is characterized by an E-cadherin protein immunoreactivity score of 0-2, wherein the E-cadherin protein immunoreactivity score is determined as an average of the percentage of membrane E-cadherin positive cancer cells over the total number of cancer cells in one or more histologic field(s) examined, and scored as follows: 0: less than 1 %, 1: 1-10 %, 2: 11-30 %, 3: 31-60 %, 4: more than 60 %, and wherein said cancer is a carcinoma.
A crystalline form (Form 1) of 6-carboxy-2-(3,5-dichlorophenyl)-benzoxazole, wherein said crystalline form has a powder X-ray diffraction pattern which comprises a peak at a diffraction angle (2θ) of 28.6 ± 0.2.
Mowing knife device with: a knife bar, and a double knife cutting system, wherein the double knife cutting system comprises an upper cutting knife and a lower cutting knife which are configured to be movable relative to each other, wherein the upper cutting knife is connected to the knife bar via an upper holding device and the lower cutting knife is connected to the knife bar via a lower holding device, wherein the upper holding device is mounted on the cutter bar via a guide bush, characterised in that a preloaded tension spring is arranged within the guide bush, wherein the tension force of the tension spring is configured to cause a pressing force of the upper cutting knife on the lower cutting knife via the upper holding device. a knife bar, and a double knife cutting system, wherein the double knife cutting system comprises an upper cutting knife and a lower cutting knife which are configured to be movable relative to each other, wherein the upper cutting knife is connected to the knife bar via an upper holding device and the lower cutting knife is connected to the knife bar via a lower holding device, wherein the upper holding device is mounted on the cutter bar via a guide bush, characterised in that a preloaded tension spring is arranged within the guide bush, wherein the tension force of the tension spring is configured to cause a pressing force of the upper cutting knife on the lower cutting knife via the upper holding device.
A method for obtaining calcium aluminates CaAl 2 O 4, CaAl 4 O 7 (CA 2), Ca 12 Al 14 O 33 (C 12 A 7), Ca 3 AlO 6 (C3A) and CaAl 12 O 19 (CA 6), where C = CaO and A = Al 2 O 3, comprising the following steps: a) carry out a reactive grinding of the non-saline aluminum slag from recovery by means of melting aluminum scrap metal or products of secondary smelting of this metal in the presence of calcium carbonate CaCO 3; b) thermally treating the product obtained in step a) at a temperature between 700 °C and 750 °C; c) thermally treating the product obtained in step b) at a temperature between 1300 °C and 1400 °C. a) carry out a reactive grinding of the non-saline aluminum slag from recovery by means of melting aluminum scrap metal or products of secondary smelting of this metal in the presence of calcium carbonate CaCO 3; b) thermally treating the product obtained in step a) at a temperature between 700 °C and 750 °C; c) thermally treating the product obtained in step b) at a temperature between 1300 °C and 1400 °C.
A method for controlling an inverter for controlling a motor, comprising: detecting an output current from the inverter; determining a software over-current suppression, S/W OCS, level according to an output frequency of the output current; and attenuating the output frequency of the inverter to reduce a slip frequency of the motor if the output current of the inverter is greater than the S/W OCS level, characterized in that the determining of the S/W OCS level includes controlling the S/W OCS level according to three sections of the output frequency, wherein the three sections include a low frequency section, an intermediate frequency section, and a high frequency section, and wherein the S/W OCS level is kept constant in the low frequency section and the high frequency section, and the S/W OCS level is set to linearly decrease as the output frequency increases in the intermediate frequency section. detecting an output current from the inverter; determining a software over-current suppression, S/W OCS, level according to an output frequency of the output current; and attenuating the output frequency of the inverter to reduce a slip frequency of the motor if the output current of the inverter is greater than the S/W OCS level, characterized in that the determining of the S/W OCS level includes controlling the S/W OCS level according to three sections of the output frequency, wherein the three sections include a low frequency section, an intermediate frequency section, and a high frequency section, and wherein the S/W OCS level is kept constant in the low frequency section and the high frequency section, and the S/W OCS level is set to linearly decrease as the output frequency increases in the intermediate frequency section.