mhurhangee/ep-ind-claims huggingface dataset:
A drill, comprising: a drill main body rotatable about an axis of rotation (O'), and having a tip end with a tip flank and a shank; a chip discharge flute formed on a periphery of said drill main body, and extending from said tip end toward said shank of said drill main body; and a cutting edge formed along an intersecting ridge where a wall surface of said chip discharge flute facing in the direction of drill rotation (T') intersects said tip flank of said drill main body, wherein said chip discharge flute comprises a first concave surface and a second concave surface, wherein the second concave surface is formed on a wall surface of said chip discharge flute facing in the direction opposite to the direction of drill rotation (T'), and wherein, when viewed in cross section perpendicular to said axis of rotation, the radius of curvature of a concave line corresponding to said second concave surface is greater than that of a concave line corresponding to said first concave surface, characterized in that said chip discharge flute comprises a first convex surface, protruding in the direction of rotation, toward the periphery, said first concave surface smoothly extending from said first convex surface, said second concave surface smoothly extending from said first concave surface, and a second convex surface smoothly extending from the second concave surface and facing in the direction opposite to the direction of drill rotation (T'). a drill main body rotatable about an axis of rotation (O'), and having a tip end with a tip flank and a shank; a chip discharge flute formed on a periphery of said drill main body, and extending from said tip end toward said shank of said drill main body; and a cutting edge formed along an intersecting ridge where a wall surface of said chip discharge flute facing in the direction of drill rotation (T') intersects said tip flank of said drill main body, wherein said chip discharge flute comprises a first concave surface and a second concave surface, wherein the second concave surface is formed on a wall surface of said chip discharge flute facing in the direction opposite to the direction of drill rotation (T'), and wherein, when viewed in cross section perpendicular to said axis of rotation, the radius of curvature of a concave line corresponding to said second concave surface is greater than that of a concave line corresponding to said first concave surface, characterized in that said chip discharge flute comprises a first convex surface, protruding in the direction of rotation, toward the periphery, said first concave surface smoothly extending from said first convex surface, said second concave surface smoothly extending from said first concave surface, and a second convex surface smoothly extending from the second concave surface and facing in the direction opposite to the direction of drill rotation (T').
A method of processing a digitally encoded radio signal comprising a bit to be determined, the method comprising: correlating a first bit sequence comprising the bit with a plurality of predetermined filters (104a-h) to create a first set of filter coefficients (110a-h); calculating a first likelihood data set (S 0,k) comprising a likelihood of said bit having a given value for each bit position from the first set of filter coefficients (110a-h); correlating a second bit sequence comprising the bit with the plurality of predetermined filters (104a-h) to create a second set of filter coefficients (110a-h); and calculating a second likelihood data set (S 1,k-1) comprising a likelihood of said bit having a given value for each bit position from the second set of filter coefficients (110a-h); and calculating a soft output bit (b k) comprising a probability weighted bit value from data corresponding to the bit at a first bit position (k) from the first likelihood data set (S 0,k) and the bit at a second bit position (k-1) from the second likelihood data set (S 1,k-1), wherein said first and second bit positions (k, k-1) are different. correlating a first bit sequence comprising the bit with a plurality of predetermined filters (104a-h) to create a first set of filter coefficients (110a-h); calculating a first likelihood data set (S 0,k) comprising a likelihood of said bit having a given value for each bit position from the first set of filter coefficients (110a-h); correlating a second bit sequence comprising the bit with the plurality of predetermined filters (104a-h) to create a second set of filter coefficients (110a-h); and calculating a second likelihood data set (S 1,k-1) comprising a likelihood of said bit having a given value for each bit position from the second set of filter coefficients (110a-h); and calculating a soft output bit (b k) comprising a probability weighted bit value from data corresponding to the bit at a first bit position (k) from the first likelihood data set (S 0,k) and the bit at a second bit position (k-1) from the second likelihood data set (S 1,k-1), wherein said first and second bit positions (k, k-1) are different.
Method for scanning induction thermography for nondestructive material examination of a test specimen, in which the test specimen and an inductor which has an infrared camera, which records infrared images, and generates an electric induction current in the test specimen are positioned relative to one another by a testing technician during a manual measurement, wherein an evaluation, carried out by means of a computer device, of at least one of the recorded infrared images, and a projection, performed by means of a projector device onto the surface of the test specimen, of in each case one indication for the testing technician which corresponds to a result of the evaluation are carried out, characterized in that an indication during or after the measurement indicates whether the measurement is or has been carried out correctly in respect of a required defect detection probability, taking account of measurement parameters.
A drive extension for use in a handheld drive device for rotating an output shaft, wherein the output shaft is configured for rotating a driven member, the drive extension comprising: a first body and a second body that mate, one of a plurality of interchangeable and removable connection gear members, each having a first connection end for rotating the driven member adjacent a first gear, and a shaft, the first body comprising a gear cavity positioned within the first body, characterized in that the gear cavity is configured to receive the first gear and the shaft of the interchangeable and removable connection gear member, and a ring gear connected to the first body, said ring gear comprising an inner aperture with inner ring teeth positioned thereon, the second body comprising a second connection end adjacent to the second body, the second connection end having a second connection aperture configured to accept a driven member, the second body connected to a set of planetary gears which are positioned within the inner aperture and configured to contact with the inner ring teeth and are configured to allow insertion and removal of one of the plurality of the connection gear members and to contact the first gear portion thereof, and wherein the shaft is connected to a bias mechanism of the drive extension, a first slide tip and a second slide tip, wherein the first slide tip is configured to be in cooperation with a second slide tip. a first body and a second body that mate, one of a plurality of interchangeable and removable connection gear members, each having a first connection end for rotating the driven member adjacent a first gear, and a shaft, the first body comprising a gear cavity positioned within the first body, characterized in that the gear cavity is configured to receive the first gear and the shaft of the interchangeable and removable connection gear member, and a ring gear connected to the first body, said ring gear comprising an inner aperture with inner ring teeth positioned thereon, the second body comprising a second connection end adjacent to the second body, the second connection end having a second connection aperture configured to accept a driven member, the second body connected to a set of planetary gears which are positioned within the inner aperture and configured to contact with the inner ring teeth and are configured to allow insertion and removal of one of the plurality of the connection gear members and to contact the first gear portion thereof, and wherein the shaft is connected to a bias mechanism of the drive extension, a first slide tip and a second slide tip, wherein the first slide tip is configured to be in cooperation with a second slide tip.
A computer implemented method for modeling a proposed geological volume, the method comprising: digitally creating a three-dimensional model of a geological volume, the model including data with different units of measure and value ranges from multiple technical areas and from multiple variables; characterized by defining, by a processor, standardized values for each of the one or more variables; automatically, mathematically determining the analysis confidence of the one or more sub-volumes where each of the variables is a mathematical factor, and using the standardized values; and updating the model of the geological volume to include the determined analysis confidence of the one or more sub-volumes, said updating being automatic by the processor, and the processor generating the updated model of the geological volume on output. digitally creating a three-dimensional model of a geological volume, the model including data with different units of measure and value ranges from multiple technical areas and from multiple variables; characterized by defining, by a processor, standardized values for each of the one or more variables; automatically, mathematically determining the analysis confidence of the one or more sub-volumes where each of the variables is a mathematical factor, and using the standardized values; and updating the model of the geological volume to include the determined analysis confidence of the one or more sub-volumes, said updating being automatic by the processor, and the processor generating the updated model of the geological volume on output.
A fusion protein comprising: a) a zinc finger protein comprising a non-canonical non-C2H2 zinc finger, wherein the non-canonical zinc finger has a helical portion involved in DNA binding and wherein the zinc-coordinating region of the helical portion comprises the amino acid sequence HKERCX L; and wherein the zinc finger protein is engineered to bind to a target sequence, wherein X L is G, and b) one or more functional domains, wherein the functional domain is a cleavage domain or a cleavage half-domain. a) a zinc finger protein comprising a non-canonical non-C2H2 zinc finger, wherein the non-canonical zinc finger has a helical portion involved in DNA binding and wherein the zinc-coordinating region of the helical portion comprises the amino acid sequence HKERCX L; and wherein the zinc finger protein is engineered to bind to a target sequence, wherein X L is G, and b) one or more functional domains, wherein the functional domain is a cleavage domain or a cleavage half-domain.
Supporting unit for a bike carrier, said supporting unit being configured for fixedly holding a mounting portion (300; 400) mountable to the fork of a bike instead of a wheel or being formed by a part other than said wheel of said bike to be transported, for example by a portion of said fork of said bike, wherein said supporting unit comprises a locking mechanism configured to receive said mounting portion (300; 400) and to be transferable between a locking state in which said mounting portion (300; 400) is non-releasably fixed on said supporting unit and an unlocking state in which said mounting portion (300; 400) is dismountable from said supporting unit, wherein said locking mechanism is configured so as to be lockable by receiving a force from said mounting portion (300; 400) upon inserting said mounting portion (300; 400) into said supporting unit so that said locking mechanism is transferable into said locking state by said force exerted on said locking mechanism by said mounting portion (300; 400).
A compound that has the following structure of Formula: wherein, each R 1 is independently selected from the group consisting of halogen, -CN, -SO 2 R 2,-OR 2, C 1 -C 4 alkyl, and C 1 -C 4 fluoroalkyl; each R 2 is independently selected from the group consisting of C 1 -C 4 alkyl, and C 1 -C 4 fluoroalkyl; n is 0, 1, 2, or 3; or a pharmaceutically acceptable salt thereof. each R 1 is independently selected from the group consisting of halogen, -CN, -SO 2 R 2,-OR 2, C 1 -C 4 alkyl, and C 1 -C 4 fluoroalkyl; each R 2 is independently selected from the group consisting of C 1 -C 4 alkyl, and C 1 -C 4 fluoroalkyl; n is 0, 1, 2, or 3; or a pharmaceutically acceptable salt thereof.
A method of plasma etching a silicon carbide workpiece including the steps of: forming a mask on a surface of the silicon carbide workpiece; performing an initial plasma etch on the masked surface using a first set of process conditions, wherein the plasma is produced using an etchant gas mixture which includes i) oxygen and ii) at least one fluorine rich gas which is present in the etchant gas mixture at a volume ratio of less than 50%, wherein the at least one fluorine rich gas is CF 4 and/or SF 6; and subsequently performing a bulk plasma etch process using a second set of process conditions which differ from the first set of process conditions, in which the bulk plasma etch process etches much more deeply into the silicon carbide workpiece than the initial plasma etch step. forming a mask on a surface of the silicon carbide workpiece; performing an initial plasma etch on the masked surface using a first set of process conditions, wherein the plasma is produced using an etchant gas mixture which includes i) oxygen and ii) at least one fluorine rich gas which is present in the etchant gas mixture at a volume ratio of less than 50%, wherein the at least one fluorine rich gas is CF 4 and/or SF 6; and subsequently performing a bulk plasma etch process using a second set of process conditions which differ from the first set of process conditions, in which the bulk plasma etch process etches much more deeply into the silicon carbide workpiece than the initial plasma etch step.
A golf trolley, comprising: a frame assembly, and a handrail disposed on the frame assembly; wherein a rotating device is disposed on a front end of the frame assembly; a front wheel assembly is rotatably mounted on the rotating device; a locking device is connected to the rotating device for controlling a degree of rotation of the front wheel assembly; the rotating device further comprises an anchor; the anchor is disposed on the frame assembly; characterized in that the locking device is disposed on the handrail; the golf trolley further comprises a snap fastener, the snap fastener comprising a reset spring and a bayonet; the snap fastener is disposed on the front wheel assembly; a revolving shaft is mounted on the anchor; the revolving shaft comprises a neck; and the bayonet is locked by the neck for locking the snap fastener with the revolving shaft in order to mount the front wheel assembly on the anchor. the rotating device further comprises an anchor; the anchor is disposed on the frame assembly; characterized in that the locking device is disposed on the handrail; the golf trolley further comprises a snap fastener, the snap fastener comprising a reset spring and a bayonet; the snap fastener is disposed on the front wheel assembly; a revolving shaft is mounted on the anchor; the revolving shaft comprises a neck; and the bayonet is locked by the neck for locking the snap fastener with the revolving shaft in order to mount the front wheel assembly on the anchor.
A hybrid vehicle comprising: a controller configured to switch between an EV mode in which the hybrid vehicle runs using only a motor and an HV mode in which the hybrid vehicle runs using both the motor and an engine; characterized in that the controller is configured to limit a usage range of a battery in the EV mode with an execution request of the EV mode having been made by an information input from outside to the vehicle rather than in the EV mode with no execution request, and the usage range of the battery is limited by increasing a threshold of battery charge for starting the engine. a controller configured to switch between an EV mode in which the hybrid vehicle runs using only a motor and an HV mode in which the hybrid vehicle runs using both the motor and an engine; characterized in that the controller is configured to limit a usage range of a battery in the EV mode with an execution request of the EV mode having been made by an information input from outside to the vehicle rather than in the EV mode with no execution request, and the usage range of the battery is limited by increasing a threshold of battery charge for starting the engine.
A method to produce an immune-active milk product comprising: a. obtaining a nonfat milk fraction from raw (unpasteurized) milk; b. obtaining a composition comprising milk fat globule membrane components (MFGM) from buttermilk; c. combining the composition comprising MFGM components with the nonfat milk fraction; and d. pasteurizing the product of step c) by application of UV-C light to prepare the immune-active milk product. a. obtaining a nonfat milk fraction from raw (unpasteurized) milk; b. obtaining a composition comprising milk fat globule membrane components (MFGM) from buttermilk; c. combining the composition comprising MFGM components with the nonfat milk fraction; and d. pasteurizing the product of step c) by application of UV-C light to prepare the immune-active milk product.
A process for preparing a pharmacoactive nutrient medium from marine algae characterized in that, said process comprises the steps of: - heating an aqueous slurry of live marine algae to a temperature in the range of 90 to 110 °C, for a time period in the range of 25 to 35 minutes to obtain a first mixture; - cooling said first mixture to 25 to 30 °C to obtain a cooled mixture; - centrifuging said cooled mixture at a speed of 6000 to 10000 rpm in an environment maintained at 4 °C to obtain a supernatant and a residue; and - separating said supernatant from said residue and concentrating said residue to 1/4 th of its volume to obtain said pharmacoactive nutrient medium. - heating an aqueous slurry of live marine algae to a temperature in the range of 90 to 110 °C, for a time period in the range of 25 to 35 minutes to obtain a first mixture; - cooling said first mixture to 25 to 30 °C to obtain a cooled mixture; - centrifuging said cooled mixture at a speed of 6000 to 10000 rpm in an environment maintained at 4 °C to obtain a supernatant and a residue; and - separating said supernatant from said residue and concentrating said residue to 1/4 th of its volume to obtain said pharmacoactive nutrient medium.
An accumulator that is connectable to a compressor, comprising: a case (1a, 111a) configured to hold a liquid refrigerant and a gaseous refrigerant; a suction pipe provided at a first side of the case (1a, 111a); a connection pipe configured to connect a second side of the case (1a, 111a) to a suction side of the compressor; a gas-liquid separation pipe provided inside the case (1a, 111a) and configured to guide the gaseous refrigerant to the connection pipe, a discharge end of the gas-liquid separation pipe that is spaced apart from a suction end of the connection pipe by a predetermined distance in an upward direction; and a liquid refrigerant inflow preventing plate that is provided inside the case (1a, 111a) to support the discharge end of the gas-liquid separation pipe; wherein the gas-liquid separation pipe is separate from the connection pipe and wherein the liquid refrigerant inflow preventing plate separates an inner cavity of the case (1a, 111a) into a first cavity and a second cavity, the first cavity being located above the second cavity. a case (1a, 111a) configured to hold a liquid refrigerant and a gaseous refrigerant; a suction pipe provided at a first side of the case (1a, 111a); a connection pipe configured to connect a second side of the case (1a, 111a) to a suction side of the compressor; a gas-liquid separation pipe provided inside the case (1a, 111a) and configured to guide the gaseous refrigerant to the connection pipe, a discharge end of the gas-liquid separation pipe that is spaced apart from a suction end of the connection pipe by a predetermined distance in an upward direction; and a liquid refrigerant inflow preventing plate that is provided inside the case (1a, 111a) to support the discharge end of the gas-liquid separation pipe; wherein the gas-liquid separation pipe is separate from the connection pipe and wherein the liquid refrigerant inflow preventing plate separates an inner cavity of the case (1a, 111a) into a first cavity and a second cavity, the first cavity being located above the second cavity.
A transducer having a mechanical impedance over an operative frequency range and having a desired power coupling to a load over the operative frequency range, the transducer comprising: a piezoelectric device having a frequency distribution of modes in the operative frequency range; a layer applied to and arranged to surround at least part of the piezoelectric device, the layer comprising a soft polymer of Shore A hardness of less than 30 on a major surface of the piezoelectric device, and a hard polymer portion of hardness between Shore A 40 and Shore D 100; and the parameters of the layer including hardness are selected to provide a required impedance matching between the mechanical impedance of the transducer and the mechanical impedance of the load, whereby, the desired power coupling between the transducer and the load is provided. a piezoelectric device having a frequency distribution of modes in the operative frequency range; a layer applied to and arranged to surround at least part of the piezoelectric device, the layer comprising a soft polymer of Shore A hardness of less than 30 on a major surface of the piezoelectric device, and a hard polymer portion of hardness between Shore A 40 and Shore D 100; and the parameters of the layer including hardness are selected to provide a required impedance matching between the mechanical impedance of the transducer and the mechanical impedance of the load, whereby, the desired power coupling between the transducer and the load is provided.
A sheet, which is a humidity-conditioning sheet comprising a sheet-shaped humidity-conditioning layer formed by bonding (i) humidity-conditioning silica particles reversibly adsorbing and desorbing moisture and having an average particle diameter of 5-1,000 μm with (ii) a thermoplastic resin powder, at a weight ratio of the powder to the particles of 1/4 to 4/1; wherein the ratio of the average particle diameter of the powder to that of the particles is 1/7 to 8/1; and the layer has a ratio of voids formed between the particles of ≥ 5%. (i) humidity-conditioning silica particles reversibly adsorbing and desorbing moisture and having an average particle diameter of 5-1,000 μm with (ii) a thermoplastic resin powder,