mhurhangee/ep-ind-claims huggingface dataset:
A cleaner for the inside of a water tank in which water-tank water within a water tank is sucked up by a siphoning action and drained outside the water tank, the cleaner comprising a suction pipe formed from a linear main body portion and a grip portion bendingly connected to the main body portion by a bent connecting part to form an angle therebetween, a flexible water-guiding pipe connected to the outer end of the suction pipe, an upstream-side one-way valve (Vu) provided at an appropriate place within the main body portion and only permitting the flow of water from the suction pipe to the water-guiding pipe, and a downstream-side one-way valve (Vd) provided within the grip portion and only permitting the flow of water from the suction pipe to the water-guiding pipe, characterized by a suction operation tool provided above the suction pipe at a position around the bent connecting part between the main body portion and the grip portion, in which the suction operation tool pressurizes or depressurizes the interior of a water passage between the upstream-side one-way valve (Vu) and the downstream-side one-way valve (Vd) when a press button of the suction operation tool is pressed with and released by a fingertip of the hand gripping the grip portion, wherein a fingerhold piece is formed integrally with the suction pipe at a position around the press button; and an arc-shaped fingerhold recess for an operator to rest a finger on is formed on an edge part of the fingerhold piece.
Method for producing a predominantly meat-based animal feed product, like with a content of at least 20 wt% meat relative to the total weight of the animal feed product, characterized in that a. a cutter for producing an animal feed precursor is charged with at least the following ingredients, which have a temperature equal to or lower than + 25°C: at least one component of the meat group, b. the ingredients are minced to form a feed precursor with a moisture content of 30 wt% to 60 wt%, c. optionally, the feed precursor is dried until a moisture content of 5 wt% to 40 wt% is reached, d. the optionally dried feed precursor is shaped into particles between 0.5 mm and 8 mm in size, e. the particles of the optionally dried feed precursor are conched into an animal feed mass, optionally with one or a plurality of components of the group cheese, milk powder, cream powder, liver sausage, and/or fat, and f. the animal feed mass is shaped into a predominantly meat-based animal feed product and optionally cooled to a temperature of between 1°C and 25°C. a. a cutter for producing an animal feed precursor is charged with at least the following ingredients, which have a temperature equal to or lower than + 25°C: at least one component of the meat group, b. the ingredients are minced to form a feed precursor with a moisture content of 30 wt% to 60 wt%, c. optionally, the feed precursor is dried until a moisture content of 5 wt% to 40 wt% is reached, d. the optionally dried feed precursor is shaped into particles between 0.5 mm and 8 mm in size, e. the particles of the optionally dried feed precursor are conched into an animal feed mass, optionally with one or a plurality of components of the group cheese, milk powder, cream powder, liver sausage, and/or fat, and f. the animal feed mass is shaped into a predominantly meat-based animal feed product and optionally cooled to a temperature of between 1°C and 25°C.
An apparatus for searching media content based on identification data embedded in an editing file, comprising: a processor module configured to read the editing file and extract identification data from the editing file, wherein the identification data is uniquely associated with particular media content, the editing file being separate from the media content; a search engine configured to search one or a plurality of media content based on the identification data and identify matching media content; a module configured to perform a secure download of the identified media content, wherein the module is configured to download a managed copy of the identified media content over the Internet and remove the managed copy after playback of the identified media content, or receive the identified media content via streaming; and a playback module configured to output the identified media content based on special effects specified in the editing file, the special effects including customized subtitles, a customized audio content and/or customized graphics, wherein the identified media content is unmodified during playback. a processor module configured to read the editing file and extract identification data from the editing file, wherein the identification data is uniquely associated with particular media content, the editing file being separate from the media content; a search engine configured to search one or a plurality of media content based on the identification data and identify matching media content; a module configured to perform a secure download of the identified media content, wherein the module is configured to download a managed copy of the identified media content over the Internet and remove the managed copy after playback of the identified media content, or receive the identified media content via streaming; and download a managed copy of the identified media content over the Internet and remove the managed copy after playback of the identified media content, or receive the identified media content via streaming; and a playback module configured to output the identified media content based on special effects specified in the editing file, the special effects including customized subtitles, a customized audio content and/or customized graphics, wherein the identified media content is unmodified during playback.
A dielectric welding film configured to bond a plurality of adherends of the same material or different materials through dielectric heating, the dielectric welding film comprising: a polyolefin resin; and a dielectric filler whose median particle diameter D50 measured in accordance with JIS Z 8819-2 is in a range from 2 to 25 μm, wherein the dielectric filler is zinc oxide, a thickness of the dielectric welding film is in a range from 100 to 1000 μm, and wherein a dielectric property (tanδ/ε') defined by dividing a dissipation factor tanδ by a permittivity ε', both measured with a RF impedance material analyzer E4991 manufactured by Agilent Technologies, Inc. at 23 degrees C and 40 MHz frequency, is 0.005 or more. a polyolefin resin; and a dielectric filler whose median particle diameter D50 measured in accordance with JIS Z 8819-2 is in a range from 2 to 25 μm, wherein the dielectric filler is zinc oxide, a thickness of the dielectric welding film is in a range from 100 to 1000 μm, and wherein a dielectric property (tanδ/ε') defined by dividing a dissipation factor tanδ by a permittivity ε', both measured with a RF impedance material analyzer E4991 manufactured by Agilent Technologies, Inc. at 23 degrees C and 40 MHz frequency, is 0.005 or more. the dielectric filler is zinc oxide, a thickness of the dielectric welding film is in a range from 100 to 1000 μm, and wherein a dielectric property (tanδ/ε') defined by dividing a dissipation factor tanδ by a permittivity ε', both measured with a RF impedance material analyzer E4991 manufactured by Agilent Technologies, Inc. at 23 degrees C and 40 MHz frequency, is 0.005 or more.
Arrangement for determining the position of an elevator car in an elevator hoistway, wherein the arrangement comprises: - a measuring apparatus fitted in connection with the elevator car, which measuring apparatus is arranged to form an electromagnetic radio-frequency measuring signal, for determining the position of the elevator car - a position identifier fitted in a selected location in relation to the elevator hoistway, which position identifier is arranged to connect inductively to the aforementioned electromagnetic measuring signal, and also after connecting to send a determined pulse pattern to the measuring apparatus via the aforementioned measuring signal, characterized in that means for measuring an external magnetic field are arranged in the measuring apparatus, and in that the position identifier comprises a permanently-magnetized marking piece, which marking piece comprises at least two consecutive magnetic areas (13,13'), the magnetic poles of which consecutive magnetic areas are of opposite directions to each other, and which consecutive magnetic areas are arranged at a determined distance from each other in the direction of movement of the elevator car. - a measuring apparatus fitted in connection with the elevator car, which measuring apparatus is arranged to form an electromagnetic radio-frequency measuring signal, for determining the position of the elevator car - a position identifier fitted in a selected location in relation to the elevator hoistway, which position identifier is arranged to connect inductively to the aforementioned electromagnetic measuring signal, and also after connecting to send a determined pulse pattern to the measuring apparatus via the aforementioned measuring signal,
A method of connecting a sieve cloth to a sieve apparatus of a type wherein an endless sieve cloth is supported by a support belt which, in operation, is structured in a manner allowing it to rotate around at least two spaced-apart turning rollers, wherein the method comprises the steps of: - providing at least one sieve cloth sheet having an upper side, a lower side, two side portions and a first end portion and a second end portion extending between the side portions; - bringing at least a portion of the sieve cloth sheet into engagement with a portion of the support belt using engagement means; - positioning the sieve cloth sheet against the support belt by moving the support belt around the turning rollers; - bringing at least two adjoining end portions (3, 5) into engagement with each other until the at least one sieve cloth sheet forms an endless sieve cloth; and - releasing the sieve cloth from said engagement with the support belt by releasing the engagement means, to allow the sieve cloth to be moved at a different velocity than that of the support belt. - providing at least one sieve cloth sheet having an upper side, a lower side, two side portions and a first end portion and a second end portion extending between the side portions; - bringing at least a portion of the sieve cloth sheet into engagement with a portion of the support belt using engagement means; - positioning the sieve cloth sheet against the support belt by moving the support belt around the turning rollers; - bringing at least two adjoining end portions (3, 5) into engagement with each other until the at least one sieve cloth sheet forms an endless sieve cloth; and - releasing the sieve cloth from said engagement with the support belt by releasing the engagement means, to allow the sieve cloth to be moved at a different velocity than that of the support belt.
Method for controlling an electromechanical actuator (1, 2) of a brake system for motor vehicles, according to which method an actual value, in particular a measured actual value, of a controlled variable (P Sys,Ist, F Ist) is intended to be set to a specified setpoint value (P Sys,Soll, F Soll), wherein a first actuator speed setpoint value (ω Akt,Soll,DR,Ctrl) is determined on the basis of the setpoint value (P Sys,Soll, F Soll) and the actual value (P Sys,Ist, F Ist) by means of a first controller (19, 20), and wherein a manipulated variable (ω Akt, Soll, M Akt, Soll) for the electromechanical actuator (1, 2) is determined on the basis of the first actuator speed setpoint value and a second actuator speed setpoint value (ω Akt,Soll, DR,FFW, 1) for speed precontrol, characterized in that the second actuator speed setpoint value (ω Akt,Soll,DR,FFW, 1) is determined on the basis of the setpoint value and a specified relationship (30, 40) between the controlled variable (P Sys, F) and a variable (X Akt) corresponding to a position of the electromechanical actuator.
A system for determining elevator car locations, the system comprising: a controller coupled to a memory; a sensor affixed to a moving component of an elevator car operating in a hoistway of a building, wherein the sensor is operated by the controller; and a tag (316, 318) affixed to at least one landing of a plurality of landings in the hoistway of the building; wherein the controller is configured to: operate the sensor to obtain tag data from the tag (316, 318) within a range of the sensor; and analyze the tag data to determine a position of the elevator car in the hoistway of the building; characterized in that the controller is further configured to: based at least on the determination of the position of the elevator car in the hoistway, operate an elevator sensor to collect sensor data associated with the elevator car; and associate the sensor data with the position of the elevator car. a controller coupled to a memory; a sensor affixed to a moving component of an elevator car operating in a hoistway of a building, wherein the sensor is operated by the controller; and a tag (316, 318) affixed to at least one landing of a plurality of landings in the hoistway of the building; wherein the controller is configured to: operate the sensor to obtain tag data from the tag (316, 318) within a range of the sensor; and analyze the tag data to determine a position of the elevator car in the hoistway of the building; operate the sensor to obtain tag data from the tag (316, 318) within a range of the sensor; and analyze the tag data to determine a position of the elevator car in the hoistway of the building; characterized in that the controller is further configured to: based at least on the determination of the position of the elevator car in the hoistway, operate an elevator sensor to collect sensor data associated with the elevator car; and associate the sensor data with the position of the elevator car. based at least on the determination of the position of the elevator car in the hoistway, operate an elevator sensor to collect sensor data associated with the elevator car; and associate the sensor data with the position of the elevator car.
A piston for an internal combustion engine, comprising: a piston body forming a crown portion and a skirt portion, the skirt portion including a bore that is arranged to receive a pin for connecting the piston to a connecting rod, the crown portion forming a bowl surrounded by a flat crown surface having an annular shape and disposed along a plane, the bowl and the flat crown surface meeting along a circular edge surrounding a rim of the bowl; an annular protrusion disposed within the bowl adjacent the rim, the annular protrusion having a generally convex shape in cross section created by an upper, inwardly extending surface and a lower, inwardly extending surface that meet along a convex apex, the upper, inwardly extending surface being formed at a first cross-sectional radius, the lower, inwardly extending surface being formed at a second cross-sectional radius, wherein the first cross-sectional radius is larger than the second cross-sectional radius; and an airfoil surface formed in the flat crown surface, the airfoil surface having a convex shape and extending annularly around the rim of the bowl. a piston body forming a crown portion and a skirt portion, the skirt portion including a bore that is arranged to receive a pin for connecting the piston to a connecting rod, the crown portion forming a bowl surrounded by a flat crown surface having an annular shape and disposed along a plane, the bowl and the flat crown surface meeting along a circular edge surrounding a rim of the bowl; an annular protrusion disposed within the bowl adjacent the rim, the annular protrusion having a generally convex shape in cross section created by an upper, inwardly extending surface and a lower, inwardly extending surface that meet along a convex apex, the upper, inwardly extending surface being formed at a first cross-sectional radius, the lower, inwardly extending surface being formed at a second cross-sectional radius, wherein the first cross-sectional radius is larger than the second cross-sectional radius; and an airfoil surface formed in the flat crown surface, the airfoil surface having a convex shape and extending annularly around the rim of the bowl.
A system comprising: a razor cartridge (104, 204, 604, 704, 804, 904, 1004, 1104, 1204, 1304) with a front and a back, including a docking receiver (224, 624, 724, 824, 924, 1024, 1124, 1224 1324) on the back, wherein the docking receiver includes two side walls and a single central tab (220, 620, 720, 820, 1020, 1120, 1320), the tab located between the docking receiver side walls, and the tab including a ramp; and a razor handle (102, 202, 302, 402, 502, 702, 1002, 1102) with a handle back end and a handle docking end, the handle docking end including: a central pushrod (212, 312, 412, 512, 712, 912, 1012, 1112, 1212) slidably located in the handle; a compression spring (390, 590, 790, 1090, 1190) around the pushrod, one end of the compression spring being biased against a fixed portion (517, 717, 1017) of the handle to push the pushrod toward the handle docking end and away from the handle back end; and one central hook arm (208, 308, 408, 508, 708, 808, 908, 1008, 1108, 1308) pivotally mounted to the handle at an axis, the axis being between a hook end of the hook arm and a pivot end of the hook arm; wherein the hook arm is configured to flex over the tab ramp and snap onto the tab; and wherein the docking receiver side walls are configured to couple to the pushrod. a razor cartridge (104, 204, 604, 704, 804, 904, 1004, 1104, 1204, 1304) with a front and a back, including a docking receiver (224, 624, 724, 824, 924, 1024, 1124, 1224 1324) on the back, wherein the docking receiver includes two side walls and a single central tab (220, 620, 720, 820, 1020, 1120, 1320), the tab located between the docking receiver side walls, and the tab including a ramp; and a razor handle (102, 202, 302, 402, 502, 702, 1002, 1102) with a handle back end and a handle docking end, the handle docking end including: a central pushrod (212, 312, 412, 512, 712, 912, 1012, 1112, 1212) slidably located in the handle; a compression spring (390, 590, 790, 1090, 1190) around the pushrod, one end of the compression spring being biased against a fixed portion (517, 717, 1017) of the handle to push the pushrod toward the handle docking end and away from the handle back end; and one central hook arm (208, 308, 408, 508, 708, 808, 908, 1008, 1108, 1308) pivotally mounted to the handle at an axis, the axis being between a hook end of the hook arm and a pivot end of the hook arm; a central pushrod (212, 312, 412, 512, 712, 912, 1012, 1112, 1212) slidably located in the handle; a compression spring (390, 590, 790, 1090, 1190) around the pushrod, one end of the compression spring being biased against a fixed portion (517, 717, 1017) of the handle to push the pushrod toward the handle docking end and away from the handle back end; and one central hook arm (208, 308, 408, 508, 708, 808, 908, 1008, 1108, 1308) pivotally mounted to the handle at an axis, the axis being between a hook end of the hook arm and a pivot end of the hook arm; wherein the hook arm is configured to flex over the tab ramp and snap onto the tab; and wherein the docking receiver side walls are configured to couple to the pushrod.
A method for recovering ethanol from a fermentation broth comprising microbial biomass, ethanol, methanol, ethyl acetate, at least one thiol, and at least one compound having 3 or more carbon atoms, the method comprising: a. separating at least microbial biomass from the fermentation broth to generate a process stream comprising ethanol, methanol, ethyl acetate, at least one thiol, and at least one compound having 3 or more carbon atoms; b. removing, in any order, from the process stream: i. ethyl acetate by reacting ethyl acetate with a base compound followed by distillation (109, 114); ii. at least one thiol by adsorption or reaction to disulphide (111, 113); iii. methanol by distillation (117, 122); iv. compounds having 3 or more carbon atoms by distillation (119, 121); and c. recovering ethanol by distillation wherein the distillations may be conducted in a single column or two or more columns. a. separating at least microbial biomass from the fermentation broth to generate a process stream comprising ethanol, methanol, ethyl acetate, at least one thiol, and at least one compound having 3 or more carbon atoms; b. removing, in any order, from the process stream: i. ethyl acetate by reacting ethyl acetate with a base compound followed by distillation (109, 114); ii. at least one thiol by adsorption or reaction to disulphide (111, 113); iii. methanol by distillation (117, 122); iv. compounds having 3 or more carbon atoms by distillation (119, 121); and i. ethyl acetate by reacting ethyl acetate with a base compound followed by distillation (109, 114); ii. at least one thiol by adsorption or reaction to disulphide (111, 113); iii. methanol by distillation (117, 122); iv. compounds having 3 or more carbon atoms by distillation (119, 121); and c. recovering ethanol by distillation wherein the distillations may be conducted in a single column or two or more columns.
A method comprising: connecting, using a processor, to a destination through a primary path; sending a video data stream using the primary path on a first communication network; connecting, using the processor, to the destination through an alternative path on a second communication network; sending a disposable frame of the video data stream using the alternative path; and receiving a transmission parameter for the disposable frame of the video data stream and the alternative path; performing a comparison of the transmission parameter for the disposable frame to a threshold value; when the transmission parameter exceeds the threshold value moving a portion of the video data stream from the primary path to the alternative path. connecting, using a processor, to a destination through a primary path; sending a video data stream using the primary path on a first communication network; connecting, using the processor, to the destination through an alternative path on a second communication network; sending a disposable frame of the video data stream using the alternative path; and receiving a transmission parameter for the disposable frame of the video data stream and the alternative path; performing a comparison of the transmission parameter for the disposable frame to a threshold value; when the transmission parameter exceeds the threshold value moving a portion of the video data stream from the primary path to the alternative path.