mhurhangee/ep-ind-claims huggingface dataset:
A sanding device comprising: a housing assembly including a major surface attachable to a sanding abrasive; and a source of illumination that includes a plurality of light-emitting diodes and that is coupled to the housing assembly and is in close proximity and at a fixed height relative to the major surface and is operable for projecting a beam of light to an area to be illuminated on a working surface adjacent at least a portion of a periphery of the housing assembly with sufficient intensity and at a generally consistent and shallow angle thereby creating shadows, by defects located at and below the surface to be sanded, that are visually discernable, wherein the sanding device is a non-motorized hand sanding device, and wherein the source of illumination includes a self-contained portable source of power that comprises one or more replaceable batteries. a housing assembly including a major surface attachable to a sanding abrasive; and a source of illumination that includes a plurality of light-emitting diodes and that is coupled to the housing assembly and is in close proximity and at a fixed height relative to the major surface and is operable for projecting a beam of light to an area to be illuminated on a working surface adjacent at least a portion of a periphery of the housing assembly with sufficient intensity and at a generally consistent and shallow angle thereby creating shadows, by defects located at and below the surface to be sanded, that are visually discernable,
A process for preparing a coconut sugar alternative, comprising the steps of: a preparing a syrup mixture by combining: i) 100 parts by weight of sugar component, including 10-100 parts by weight of sugar selected from cane sugar, beet sugar, palm sugar and combinations thereof and 0-90 parts by weight of coconut sugar; ii) at least 0.2 parts by weight of coconut material selected from coconut cream, coconut milk and combinations thereof, and not more than 50 parts by weight of coconut material selected from coconut cream, coconut milk, coconut water, coconut meat and combinations thereof; iii) 0-100 parts by weight of water; and iv) 0-50 parts by weight of other edible ingredients; b heating the syrup mixture for at least 5 minutes at a temperature of at least 110°C to obtain a heated sugar composition. a preparing a syrup mixture by combining: i) 100 parts by weight of sugar component, including 10-100 parts by weight of sugar selected from cane sugar, beet sugar, palm sugar and combinations thereof and 0-90 parts by weight of coconut sugar; ii) at least 0.2 parts by weight of coconut material selected from coconut cream, coconut milk and combinations thereof, and not more than 50 parts by weight of coconut material selected from coconut cream, coconut milk, coconut water, coconut meat and combinations thereof; iii) 0-100 parts by weight of water; and iv) 0-50 parts by weight of other edible ingredients; i) 100 parts by weight of sugar component, including 10-100 parts by weight of sugar selected from cane sugar, beet sugar, palm sugar and combinations thereof and 0-90 parts by weight of coconut sugar; ii) at least 0.2 parts by weight of coconut material selected from coconut cream, coconut milk and combinations thereof, and not more than 50 parts by weight of coconut material selected from coconut cream, coconut milk, coconut water, coconut meat and combinations thereof; iii) 0-100 parts by weight of water; and iv) 0-50 parts by weight of other edible ingredients; b heating the syrup mixture for at least 5 minutes at a temperature of at least 110°C to obtain a heated sugar composition.
A method comprising: imprinting dips on an optical amplitude of parallel signals (605, 606); modulating each of the parallel signals to carry a respective temporal sequence of data symbols; extracting an electrical signal containing information of the imprinted dips, for each of the parallel signals (605, 606); and comparing the extracted electrical signals to detect a skew between the parallel signals (605, 606); characterized in that the imprinting and modulating are synchronized so that: each dip is imprinted on the optical amplitude between two consecutive symbols; each dip has a duration so that the dip does not affect a central part of each of the two consecutive symbols between which the dip is imprinted; and in that the dips are imprinted on the optical amplitude of each signal at a regular interval. imprinting dips on an optical amplitude of parallel signals (605, 606); modulating each of the parallel signals to carry a respective temporal sequence of data symbols; extracting an electrical signal containing information of the imprinted dips, for each of the parallel signals (605, 606); and comparing the extracted electrical signals to detect a skew between the parallel signals (605, 606); characterized in that the imprinting and modulating are synchronized so that: each dip is imprinted on the optical amplitude between two consecutive symbols; each dip has a duration so that the dip does not affect a central part of each of the two consecutive symbols between which the dip is imprinted; and in that the dips are imprinted on the optical amplitude of each signal at a regular interval. each dip is imprinted on the optical amplitude between two consecutive symbols; each dip has a duration so that the dip does not affect a central part of each of the two consecutive symbols between which the dip is imprinted; and in that the dips are imprinted on the optical amplitude of each signal at a regular interval.
A double shoulder connection joint for use in a drill stem, having a pin with external threads formed between a pin external shoulder and a pin face, a box with internal threads formed between a box external shoulder and a box internal shoulder, the box having a counterbore section between the internal threads and the box external shoulder, the pin having a base section between the external shoulder and the external threads, and a nose section between the external pin face and the external threads, said internal threads and said external threads are arranged and designed for connection with each other so that said box and said pin are connected with a common center-line ( C / L) and with a Primary Shoulder and Seal formed by said pin external shoulder forced against said box external shoulder and a Secondary Shoulder formed by said pin face forced against said box internal shoulder, and wherein said connection joint is characterized by, said internal threads and said external threads having a thread taper ( T th) which is greater than a thread taper ( T th lower) of 1.0 inch per foot, and which is less than an upper limit ( T th upper) of 1.2 inch per foot. a pin with external threads formed between a pin external shoulder and a pin face, a box with internal threads formed between a box external shoulder and a box internal shoulder, the box having a counterbore section between the internal threads and the box external shoulder, the pin having a base section between the external shoulder and the external threads, and a nose section between the external pin face and the external threads, said internal threads and said external threads are arranged and designed for connection with each other so that said box and said pin are connected with a common center-line ( C / L) and with a Primary Shoulder and Seal formed by said pin external shoulder forced against said box external shoulder and a Secondary Shoulder formed by said pin face forced against said box internal shoulder, and wherein said connection joint is characterized by, said internal threads and said external threads having a thread taper ( T th) which is greater than a thread taper ( T th lower) of 1.0 inch per foot, and which is less than an upper limit ( T th upper) of 1.2 inch per foot.
A ketoreductase polypeptide capable of stereoselectively reducing a 3-ketothiolane to -3-hydroxythiolane with a percent stereomeric excess of at least 70%, which comprises an amino acid sequence that is at least 85% identical to a reference sequence based on SEQ ID NO:4 having at the residue corresponding to X145 a serine, and in which the ketoreductase polypeptide amino acid sequence has at the residue corresponding to X145 a serine.
Sealing element, for sealing a cylindrical inner surface of a first machine component and a cylindrical outer surface of a second machine component, comprising: - an inner ring, - an additional ring, which is arranged coaxially with respect to to the inner ring and is connected to a part of an outer shell surface of the inner ring, - an outer ring arranged coaxially with respect to to the inner ring, and - a sealing gap, which is formed by an outer shell surface of the inner ring, an inner shell surface of the outer ring and by an outer shell surface and a face side of the additional ring, and which has a meandering profile in an axial section through the common axis of the inner ring, outer ring and additional ring; wherein the profile of the sealing gap has the following profile portions: - an inlet portion as a first end portion of the sealing gap having a first radius to the common axis; - an outlet portion as a second end portion of the sealing gap having a second radius to the common axis, wherein the second radius is smaller than the first radius; and - a meandering portion configured between the inlet portion and the outlet portion; wherein the outer shell surface of the additional ring forms a boundary surface of the outlet portion, in particular the radially inner boundary surface of the outlet portion; and characterized in that the meandering portion of the sealing gap, starting from the inlet portion and ending at the outlet portion, has the following segments: - a first radial gap; - a first axial gap, which has a radius smaller than the inlet portion; - a second radial gap; - a second axial gap, which has a radius smaller than the first axial gap; - a third radial gap; - a combined axial-radial gap; - a third axial gap, which has a radius smaller than the outlet portion; and - a fourth radial gap. - an inner ring, - an additional ring, which is arranged coaxially with respect to to the inner ring and is connected to a part of an outer shell surface of the inner ring, - an outer ring arranged coaxially with respect to to the inner ring, and - a sealing gap, which is formed by an outer shell surface of the inner ring, an inner shell surface of the outer ring and by an outer shell surface and a face side of the additional ring, and which has a meandering profile in an axial section through the common axis of the inner ring, outer ring and additional ring; - an inlet portion as a first end portion of the sealing gap having a first radius to the common axis; - an outlet portion as a second end portion of the sealing gap having a second radius to the common axis, wherein the second radius is smaller than the first radius; and - a meandering portion configured between the inlet portion and the outlet portion; - a first radial gap; - a first axial gap, which has a radius smaller than the inlet portion; - a second radial gap; - a second axial gap, which has a radius smaller than the first axial gap; - a third radial gap; - a combined axial-radial gap; - a third axial gap, which has a radius smaller than the outlet portion; and - a fourth radial gap.
A seat belt latch (19, 35) including an anchoring plate on the floor of a vehicle and at least one arm (23, 37) extending upward and intended to be connected to a device for locking a seat belt, characterized in that it has on at least one of its arms (23, 37), at least one hook (29, 41) forming an air gap and configured to be arranged facing a structural wire (31, 43) of a seat portion of a seat or bench seat, such that a longitudinal movement of the seat portion in the direction of the hook or hooks (29, 41), places the wire (31, 43) in the air gap of the said hook or hooks (29, 41).
A method for defending against unwanted traffic by a target victim, the target victim having one or more destination addresses, the method comprising the steps of: determining that unwanted traffic is received by said target victim based on an analysis of packets received from one or more source IP addresses; and transmitting a denunciation message to a central filter associated with a service provider, said denunciation message identifying a source address of at least one source computing device whose transmission of packets to said target victim is specified in said denunciation message to be limited or dropped, wherein said denunciation message is transmitted using a denunciation protocol comprising a first reliable TLS channel and a second UDP channel that does not require an acknowledgement from said central filter, wherein authentication information is transmitted using the first channel of the denunciation protocol and said denunciation message is transmitted using the second channel of the denunciation protocol. determining that unwanted traffic is received by said target victim based on an analysis of packets received from one or more source IP addresses; and transmitting a denunciation message to a central filter associated with a service provider, said denunciation message identifying a source address of at least one source computing device whose transmission of packets to said target victim is specified in said denunciation message to be limited or dropped, wherein said denunciation message is transmitted using a denunciation protocol comprising a first reliable TLS channel and a second UDP channel that does not require an acknowledgement from said central filter, wherein authentication information is transmitted using the first channel of the denunciation protocol and said denunciation message is transmitted using the second channel of the denunciation protocol.
Hollow particle comprising an outer shell forming a hollow space and an inner material at least partially enclosed by the outer shell, wherein the outer shell has a refractive index of 1.3 to 2.5 and the inner material has a refractive index of 1.4 to 3.2, and wherein the inner material partially fills in the volume of the hollow space, characterized in that the outer shell contains a polymeric material and the inner material is selected from the group consisting of chalk, talcum, dolomite, aluminum hydroxide, gibbsite, calcium carbonate, calcite, barium sulfate, mica, quartz, wollastonite, kaolin, diatomaceous earth, perlite, feldspar, silica sol, silicic acid, and basalt and mixtures thereof.
A process for reductive animation of aliphatic cyanoaldehydes to aliphatic diamines comprising the steps of: providing a mixture of one or more cycloaliphatic cyanoaldehydes, optionally water and optionally one or more solvents, wherein said one or more cycloaliphatic cyanoaldehydes are selected from the group consisting of 1,3-cyanocyclohexane carboxaldehyde, 1,4-cyanocyclohexane carboxaldehyde, mixtures thereof, and combinations thereof; contacting said mixture with a metal carbonate based solid bed or a weak base anion exchange resin bed at a temperature in the range of 15 to 40° C for a period of at least 1 minute or more; thereby treating said mixture; neutralizing said treated mixture, wherein said neutralized treated mixture has a pH in the range of 6 to 9; feeding said neutralized treated mixture, hydrogen, and ammonia into a continuous reductive amination reactor system; contacting said neutralized treated mixture, hydrogen, and ammonia with each other in the presence of one or more heterogeneous metal based catalyst systems at a temperature in the range of from 80° C to about 160° C and a pressure in the range of from 700 to 3500 psig (≃ 48.3 to 241.4 bar); thereby producing one or more cycloaliphatic diamines, wherein said one or more cycloaliphatic diamines are diamines selected from the group consisting of 1,3-bis(aminomethyl)cyclohexane, 1,4-bis(aminomiethyl)cyclohexane, combinations thereof, and mixtures thereof. providing a mixture of one or more cycloaliphatic cyanoaldehydes, optionally water and optionally one or more solvents, wherein said one or more cycloaliphatic cyanoaldehydes are selected from the group consisting of 1,3-cyanocyclohexane carboxaldehyde, 1,4-cyanocyclohexane carboxaldehyde, mixtures thereof, and combinations thereof; contacting said mixture with a metal carbonate based solid bed or a weak base anion exchange resin bed at a temperature in the range of 15 to 40° C for a period of at least 1 minute or more; thereby treating said mixture; neutralizing said treated mixture, wherein said neutralized treated mixture has a pH in the range of 6 to 9; feeding said neutralized treated mixture, hydrogen, and ammonia into a continuous reductive amination reactor system; contacting said neutralized treated mixture, hydrogen, and ammonia with each other in the presence of one or more heterogeneous metal based catalyst systems at a temperature in the range of from 80° C to about 160° C and a pressure in the range of from 700 to 3500 psig (≃ 48.3 to 241.4 bar); thereby producing one or more cycloaliphatic diamines, wherein said one or more cycloaliphatic diamines are diamines selected from the group consisting of 1,3-bis(aminomethyl)cyclohexane, 1,4-bis(aminomiethyl)cyclohexane, combinations thereof, and mixtures thereof.
An electrode assembly for a low resistance secondary battery, the electrode assembly comprising: when the wound electrode assembly is spread, an electrode provided with a coating portion coated with an active material (a) on an electrode collector and a non-coating portion, on which the active material (a) is not applied on the electrode collector, in a longitudinal direction of the electrode collector; a tab member disposed on the non-coating portion; and a plurality of foil tabs which extend from the coating portion in a width direction of the electrode collector and on which foil tabs the active material (a) is not applied, wherein, when the electrode is wound, the lengths of the foil tabs gradually increase from a center of the wound electrode toward the outside. when the wound electrode assembly is spread, an electrode provided with a coating portion coated with an active material (a) on an electrode collector and a non-coating portion, on which the active material (a) is not applied on the electrode collector, in a longitudinal direction of the electrode collector; a tab member disposed on the non-coating portion; and a plurality of foil tabs which extend from the coating portion in a width direction of the electrode collector and on which foil tabs the active material (a) is not applied, wherein, when the electrode is wound, the lengths of the foil tabs gradually increase from a center of the wound electrode toward the outside.
A method of identifying a border position of a print medium, the method comprising: advancing the print medium in a feeding direction to reach a cutting position; advancing a cutter in a cutting direction, perpendicular to the feeding direction to cut the print medium; identifying a change in friction when the cutter contacts the print medium; identifying the position of the cutter when the change in friction is identified; and determining the border position based on the identifying of the position of the cutter, wherein identifying a change in friction comprises identifying a change in a speed of the cutter, the cutter is driven by a motor and the method is characterised in that identifying a change in the cutter's speed comprises identifying a change in rotational speed of the motor driving the cutter, and identifying the position of the cutter comprises identifying markings of a rotary encoder, coupled to the motor, and registering a plurality of cutter positions for each rotation of the motor, each marking corresponding to a cutter position along the cutting direction. advancing the print medium in a feeding direction to reach a cutting position; advancing a cutter in a cutting direction, perpendicular to the feeding direction to cut the print medium; identifying a change in friction when the cutter contacts the print medium; identifying the position of the cutter when the change in friction is identified; and determining the border position based on the identifying of the position of the cutter, wherein identifying a change in friction comprises identifying a change in a speed of the cutter, the cutter is driven by a motor and the method is characterised in that identifying a change in the cutter's speed comprises identifying a change in rotational speed of the motor driving the cutter, and identifying the position of the cutter comprises identifying markings of a rotary encoder, coupled to the motor, and registering a plurality of cutter positions for each rotation of the motor, each marking corresponding to a cutter position along the cutting direction.
A biopsy driver assembly configured to mount a biopsy probe assembly, comprising: a biopsy driver housing; an electrical assembly (36, 700) coupled to said biopsy driver housing, said electrical assembly including at least one electrical drive (361, 362, 363) configured for drivably engaging said biopsy probe assembly; a battery coupled to said biopsy driver housing; and a control circuit coupled to said biopsy driver housing, characterized by said control circuit having a motion detector, a timer circuit and a battery dwell circuit, said battery dwell circuit being electrically coupled to said battery and to said electrical assembly and configured to conserve said battery by providing in a battery dwell mode electrical power only to said motion detector after a predetermined time following a last detected physical movement of said biopsy driver assembly and to provide in an operative mode electrical power from said battery also to said electrical assembly when a physical movement of said biopsy driver assembly is detected. a biopsy driver housing; an electrical assembly (36, 700) coupled to said biopsy driver housing, said electrical assembly including at least one electrical drive (361, 362, 363) configured for drivably engaging said biopsy probe assembly; a battery coupled to said biopsy driver housing; and a control circuit coupled to said biopsy driver housing, characterized by said control circuit having a motion detector, a timer circuit and a battery dwell circuit, said battery dwell circuit being electrically coupled to said battery and to said electrical assembly and configured to conserve said battery by providing in a battery dwell mode electrical power only to said motion detector after a predetermined time following a last detected physical movement of said biopsy driver assembly and to provide in an operative mode electrical power from said battery also to said electrical assembly when a physical movement of said biopsy driver assembly is detected.