mhurhangee/ep-ind-claims huggingface dataset:
A point-of-sale system for making custom-tinted waterborne architectural paints and stains, the system comprising an array of low VOC concentrated liquid colorants comprising pigment or dye and a vehicle, the array including at least white colorant; black colorant; and green-hued, blue-hued and red-hued primary colorants at least one of which primary colorants comprises polyalkylene glycol humectant, ethoxylated surfactant and extender pigment; wherein for colorants in the array containing polyalkylene glycol humectant the amounts of such polyalkylene glycol humectant and any ethoxylated surfactant are sufficiently high and the amount of any extender pigment is sufficiently low so that sprinkled sand will adhere to 0.08 mm (3 mil) wet coating thickness films of each of the colorants in the array after air drying such films for at least 24 hours in a conditioned room as described in ASTM D 4946-89 (Reapproved 2003), and wherein the amounts of polyalkylene glycol humectant in such polyalkylene glycol humectant-containing colorants are sufficiently low so that individual dried paint films made by mixing 9 vol. % of such polyalkylene, glycol humectant-containing colorants with a clear waterborne base paint containing a binder having a Tg between 10 and 20 °C will exhibit a blocking resistance rating of 4 or more when evaluated using ASTM D 4946-89 (Reapproved 2003).
A method of storing data sets in a storage set comprising different storage devices, such as Redundant Array of Inexpensive Disks, RAID, arrays, the method involving a computer having a processor and comprising: executing on the processor instructions configured to: generate on a storage device a journal configured to store a plurality of data sets and a verifier for said plurality of data sets; upon receiving a request to store a data set at a location in the storage set, store the data set in the journal; select a batch of data sets stored in the journal, wherein a first data set is omitted from the batch, if it is determined that the journal also includes a second data set that is newer than the first data set and that is to be stored at the same location in the storage set, said selecting comprising: compute a verifier for the data sets of the selected batch; store the verifier in the journal; store the data sets and the verifier of the data sets in the storage set; and after storing the data sets and the verifier of the data sets in the storage set, remove the data sets from the journal. generate on a storage device a journal configured to store a plurality of data sets and a verifier for said plurality of data sets; upon receiving a request to store a data set at a location in the storage set, store the data set in the journal; select a batch of data sets stored in the journal, wherein a first data set is omitted from the batch, if it is determined that the journal also includes a second data set that is newer than the first data set and that is to be stored at the same location in the storage set, said selecting comprising: compute a verifier for the data sets of the selected batch; store the verifier in the journal; store the data sets and the verifier of the data sets in the storage set; and after storing the data sets and the verifier of the data sets in the storage set, remove the data sets from the journal. compute a verifier for the data sets of the selected batch; store the verifier in the journal; store the data sets and the verifier of the data sets in the storage set; and after storing the data sets and the verifier of the data sets in the storage set, remove the data sets from the journal.
A message handler (6 1, 6 2; 20) configured, in response to receiving a data package (13 1, 13 2) which is formatted according to a given communications protocol and which comprises package-directing data and payload data, to generate a package having a predetermined data format which comprises a header and payload data, wherein the header comprises an address generated in dependence upon the package-directing data and wherein the payload comprises the data package, and wherein the message handler is configured to copy data from a first field in the package-directing data into a corresponding field in the header.
A method for assessing whether a patient suffers from a myeloid malignancy or is prone to suffering from a myeloid malignancy, said method comprising - determining the presence of one or more mutant alleles of the calreticulin gene in a sample from said patient; and - assessing that said patient suffers from a myeloid malignancy or is prone to suffering from a myeloid malignancy when said one or more mutant alleles of the calreticulin gene is present, wherein said one or more mutant alleles comprises a nucleic acid encoding a mutant calreticulin protein, wherein said mutant calreticulin protein is selected from the group consisting of (a) a protein encoded by a nucleic acid molecule having the nucleic acid sequence as depicted in SEQ ID NO: 1, 2 or 3; and (b) a protein comprising the amino acid sequence as shown in SEQ ID NO: 4. - determining the presence of one or more mutant alleles of the calreticulin gene in a sample from said patient; and - assessing that said patient suffers from a myeloid malignancy or is prone to suffering from a myeloid malignancy when said one or more mutant alleles of the calreticulin gene is present, (a) a protein encoded by a nucleic acid molecule having the nucleic acid sequence as depicted in SEQ ID NO: 1, 2 or 3; and (b) a protein comprising the amino acid sequence as shown in SEQ ID NO: 4.
A method for storing and transporting sleeves on a textile machine having a plurality of workstations disposed adjacent to each other and on opposite sides of the machine along a longitudinal axis of the machine and having winding devices, yarn being wound onto a sleeve therein, and having a transport device for transporting sleeves from a plurality of sleeve magazines (7.1, 7.2, 7.3, 7.4) disposed on both sides of the machine to the workstation, wherein sleeves are received in the sleeve magazine (7.1, 7.2, 7.3, 7.4) and the longitudinal axes thereof are substantially horizontal and aligned transverse to the longitudinal axis of the machine, wherein the individual sleeve is removed from the sleeve magazine (7.1, 7.2, 7.3, 7.4) in the direction of the sleeve axis and displaced in the direction toward the longitudinal axis of the machine between the sleeve magazines (7.1, 7.2, 7.3, 7.4) disposed on both sides of the machine characterized in that the sleeve is selectively rotated by about 90° to the left or the right, according to the desired alignment of the sleeve, after removal from the sleeve magazine (7.1, 7.2, 7.3, 7.4).
Tilidine isomerization and crystallization process, comprising a) providing a reaction mixture comprising cis-tilidine, a dicarboxylic acid, water and an alcohol having 3 to 6 carbon atoms; b) maintaining the reaction mixture at a temperature T of from 80 °C to 150 °C for a period of time t, T and t meeting the following condition: 500 ≤ k T − 80 ⋅ t wherein k is 1,07738 T is the temperature in °C; t is the time in minutes at the temperature T; c) removing water from the reaction mixture and crystallizing a trans-tilidine dicarboxylic acid salt from the reaction mixture. a) providing a reaction mixture comprising cis-tilidine, a dicarboxylic acid, water and an alcohol having 3 to 6 carbon atoms; b) maintaining the reaction mixture at a temperature T of from 80 °C to 150 °C for a period of time t, T and t meeting the following condition: 500 ≤ k T − 80 ⋅ t wherein k is 1,07738 T is the temperature in °C; t is the time in minutes at the temperature T; k is 1,07738 T is the temperature in °C; t is the time in minutes at the temperature T; c) removing water from the reaction mixture and crystallizing a trans-tilidine dicarboxylic acid salt from the reaction mixture.
A method for the simultaneous detection of multiple analytes in a sample, comprising: (a) contacting the sample with a set of binding agents conjugated to a plurality of isotope-coded reporters (iCOREs), wherein the binding agents are capable of specifically binding a set of analytes, under conditions suitable for the binding agents to bind to the analytes, wherein the set of binding agents comprises at least 5, at least 6, at least 7, at least 8, at least 9, at least 10, at least 11, at least 12, at least 13, at least 14, at least 15, at least 16, at least 17, at least 18, at least 19, or at least 20 different iCORE -conjugated binding agents, wherein the iCOREs are peptide mass tags and wherein (i) the sample is contacted in vivo, or (ii) the binding agents are conjugated to the iCOREs via a photocleavable linker; (b) identifying and/or quantifying, optionally by MS/MS assay, the iCOREs of analyte-bound binding agents; and (c) identifying and/or quantifying the analytes present in the sample based on the iCOREs identified in (b). (a) contacting the sample with a set of binding agents conjugated to a plurality of isotope-coded reporters (iCOREs), wherein the binding agents are capable of specifically binding a set of analytes, under conditions suitable for the binding agents to bind to the analytes, wherein the set of binding agents comprises at least 5, at least 6, at least 7, at least 8, at least 9, at least 10, at least 11, at least 12, at least 13, at least 14, at least 15, at least 16, at least 17, at least 18, at least 19, or at least 20 different iCORE -conjugated binding agents, wherein the iCOREs are peptide mass tags and wherein (i) the sample is contacted in vivo, or (ii) the binding agents are conjugated to the iCOREs via a photocleavable linker; (b) identifying and/or quantifying, optionally by MS/MS assay, the iCOREs of analyte-bound binding agents; and (c) identifying and/or quantifying the analytes present in the sample based on the iCOREs identified in (b).
A multi-axis photoelectric sensor comprising; a projector and an optical receiver disposed opposed to each other, between which a detection area is formed by a plurality of optical axes; detection means that sequentially detects a non-shielded state/a shielded state of the optical axes to determine the non-shielded state/shielded state of the detection area as a whole; signal output means that outputs a high-level signal while the detection means determines that the detection area is in the non-shielded state and stops the signal output when the detection means determines that the detection area is shielded; and muting processing means that temporarily disables the signal output stop function of the signal output means on a condition that the determination results from the detection means and a detection signal input from an external muting device change according to a prescribed sequence, wherein the muting processing means includes abnormality detection means that divides into a plurality of stages the sequence of a change in the determination results from the detection means and the detection signal from the muting device for monitoring to detect an abnormality in the sequence in the one of the plurality of stages being monitored; and output control means that prevents the signal output stop function from being disabled in response to detection of the abnormality by the abnormality detection means, characterized in that the muting processing means further includes notification means that outputs, in response to detection of the abnormality by the abnormality detection means, information indicating a type of the one of the plurality of stages in which the abnormality has been detected.
A conveying device to convey a conveyed object, the conveying device comprising: a supporter (325, 327) having a front surface to support the conveyed object, the supporter (325, 327) having an air-permeable structure; and a negative pressure generator (330, 330', 330") to create a negative pressure state in a space at a back surface side of the supporter, wherein the negative pressure generator (330, 330', 330") includes a suction unit (350, 350', 351) to suck air in the space through a plurality of suction ports (345a to 345d), and the plurality of suction ports (345a to 345d) are disposed away from and opposed to a back surface of the supporter (325, 327); characterized by: a blower to blow air toward the front surface of the supporter (325, 327); and a divider disposed away from the back surface of the supporter (325, 327) between the plurality of suction ports (345a to 345d) and the back surface of the supporter (325, 327) in the space, the divider having a plurality of ventilation holes smaller in opening area than each of the plurality of suction ports (345a to 345d). a supporter (325, 327) having a front surface to support the conveyed object, the supporter (325, 327) having an air-permeable structure; and a negative pressure generator (330, 330', 330") to create a negative pressure state in a space at a back surface side of the supporter, wherein the negative pressure generator (330, 330', 330") includes a suction unit (350, 350', 351) to suck air in the space through a plurality of suction ports (345a to 345d), and the plurality of suction ports (345a to 345d) are disposed away from and opposed to a back surface of the supporter (325, 327); characterized by: a blower to blow air toward the front surface of the supporter (325, 327); and a divider disposed away from the back surface of the supporter (325, 327) between the plurality of suction ports (345a to 345d) and the back surface of the supporter (325, 327) in the space, the divider having a plurality of ventilation holes smaller in opening area than each of the plurality of suction ports (345a to 345d). a blower to blow air toward the front surface of the supporter (325, 327); and a divider disposed away from the back surface of the supporter (325, 327) between the plurality of suction ports (345a to 345d) and the back surface of the supporter (325, 327) in the space, the divider having a plurality of ventilation holes smaller in opening area than each of the plurality of suction ports (345a to 345d).
Anti-theft device comprising: at least one first part and at least one second part linked together by a linking mechanism, said linking mechanism allowing a relative movement of said at least one first and second parts and the passage between a first closed configuration and a second open configuration, at least one locking mechanism for locking said device in said first closed configuration, and at least one closing mechanism configured to cooperate with a closure (11, 12, 13, 14) of an object to secure and maintain said closure of said object in a closed position, when said device is in said first closed configuration, wherein in said second open configuration, said at least one first and second portions allow the passage of an anchor point, and in said first closed configuration, said at least one first and second portions allow enclosure of said anchor point to hold said device attached to said anchor point, characterized in that wherein in said first closed configuration: said first and second parts (A, B), the linking mechanism and said closing mechanism form a first loop, and said first and second parts (A, B), the closing mechanism and said locking mechanism form a second loop. at least one first part and at least one second part linked together by a linking mechanism, said linking mechanism allowing a relative movement of said at least one first and second parts and the passage between a first closed configuration and a second open configuration, at least one locking mechanism for locking said device in said first closed configuration, and at least one closing mechanism configured to cooperate with a closure (11, 12, 13, 14) of an object to secure and maintain said closure of said object in a closed position, when said device is in said first closed configuration, wherein in said second open configuration, said at least one first and second portions allow the passage of an anchor point, and in said first closed configuration, said at least one first and second portions allow enclosure of said anchor point to hold said device attached to said anchor point, characterized in that wherein in said first closed configuration: said first and second parts (A, B), the linking mechanism and said closing mechanism form a first loop, and said first and second parts (A, B), the closing mechanism and said locking mechanism form a second loop. said first and second parts (A, B), the linking mechanism and said closing mechanism form a first loop, and said first and second parts (A, B), the closing mechanism and said locking mechanism form a second loop.
A method of melting particulate feedstocks in a submerged combustion melter (100, 200, 300) employing an arrangement of one or more submerged combustion burners (26, 28, 30) emitting combustion products into turbulent molten material, the SCM (100, 200, 300) having a length and a width, a centerline, a midpoint, a sidewall structure having a north side and a south side, the sidewall structure connecting a ceiling and a floor of the SCM (100, 200, 300), the ceiling positioned above the floor a height H2, the method comprising: (a) operating the SC burners (26, 28, 30) such that there is established a turbulent melting region extending vertically from the floor to a splash region, the splash region extending vertically between the turbulent melting region and a head space region, the head space region extending vertically between the splash region and the melter ceiling; (b) feeding the particulate feedstock into the splash region through one or more inlet ports, the inlet ports positioned at a height H1 measured from the floor, where H1/H2 ranges from 0.33 to 0.67; (c) melting the particulate feedstock in the SCM (100, 200, 300); (d) providing a baffle extending vertically downward from a ceiling of the SCM (100, 200, 300) into the splash region and perpendicular to the SCM centerline, the baffle having a width equal to the width of the SCM (100, 200, 300), the baffle positioned between the SCM feed end (F, 12) and the midpoint of the SCM (100, 200, 300), and (e) operating the SCM (100, 200, 300) so that the splash region submerges a distal end of the baffle, and allowing exhaust to flow out of an exhaust stack of the SCM (100, 200, 300) attached to a ceiling of the SCM (100, 200, 300) along the SCM centerline, the exhaust stack positioned between the midpoint and the exit end wall of the SCM (100, 200, 300). (a) operating the SC burners (26, 28, 30) such that there is established a turbulent melting region extending vertically from the floor to a splash region, the splash region extending vertically between the turbulent melting region and a head space region, the head space region extending vertically between the splash region and the melter ceiling; (b) feeding the particulate feedstock into the splash region through one or more inlet ports, the inlet ports positioned at a height H1 measured from the floor, where H1/H2 ranges from 0.33 to 0.67; (c) melting the particulate feedstock in the SCM (100, 200, 300); (d) providing a baffle extending vertically downward from a ceiling of the SCM (100, 200, 300) into the splash region and perpendicular to the SCM centerline, the baffle having a width equal to the width of the SCM (100, 200, 300), the baffle positioned between the SCM feed end (F, 12) and the midpoint of the SCM (100, 200, 300), and (e) operating the SCM (100, 200, 300) so that the splash region submerges a distal end of the baffle, and allowing exhaust to flow out of an exhaust stack of the SCM (100, 200, 300) attached to a ceiling of the SCM (100, 200, 300) along the SCM centerline, the exhaust stack positioned between the midpoint and the exit end wall of the SCM (100, 200, 300).
A power management integrated circuit, PMIC, comprising: a first power regulator; and a control logic circuit configured to control the first power regulator to source a corresponding power rail while a battery voltage is less than a dynamic sleep threshold voltage when a device powered by the corresponding power rail is in the sleep mode and to power collapse the corresponding power rail while the battery voltage is greater than the dynamic sleep threshold voltage when the device is in the sleep mode. a first power regulator; and a control logic circuit configured to control the first power regulator to source a corresponding power rail while a battery voltage is less than a dynamic sleep threshold voltage when a device powered by the corresponding power rail is in the sleep mode and to power collapse the corresponding power rail while the battery voltage is greater than the dynamic sleep threshold voltage when the device is in the sleep mode.
A tire having: a tread with stud holes for stud insertion on the surface side thereof, wherein, when studs are not inserted into the stud holes, the stud holes each have an opening side part on one side along the central axis thereof, which opens on the surface of the tread, and a bottom side part on the other side along the central axis thereof, wherein an inner peripheral surface of the bottom side part is formed in a curved surface swelling outward away from the central axis of the stud hole, wherein the maximum diameter position of the inner peripheral surface of the bottom side part is located on the hole bottom surface side of the intermediate position between the boundary position of the opening side part and the bottom side part and the hole bottom surface, wherein the curvature radius of a curved surface on the opening side, which is a curved surface extending along the central axis of the stud hole positioned between the maximum diameter position and the boundary position is greater than the curvature radius of a curved surface on the bottom side, which is a curved surface extending along the central axis of the stud hole positioned between the maximum diameter position and the hole bottom surface of the stud hole, characterised in that: the opening side part has an opening area formed in an inverted cone shape whose diameter reduces gradually from the surface side of the tread toward the hole bottom surface of the stud hole and the opening diameter of the opening of the opening area is larger than the cross-sectional diameter of the bottom side part. a tread with stud holes for stud insertion on the surface side thereof, wherein, when studs are not inserted into the stud holes, the stud holes each have an opening side part on one side along the central axis thereof, which opens on the surface of the tread, and a bottom side part on the other side along the central axis thereof, wherein an inner peripheral surface of the bottom side part is formed in a curved surface swelling outward away from the central axis of the stud hole, wherein the maximum diameter position of the inner peripheral surface of the bottom side part is located on the hole bottom surface side of the intermediate position between the boundary position of the opening side part and the bottom side part and the hole bottom surface, wherein the curvature radius of a curved surface on the opening side, which is a curved surface extending along the central axis of the stud hole positioned between the maximum diameter position and the boundary position is greater than the curvature radius of a curved surface on the bottom side, which is a curved surface extending along the central axis of the stud hole positioned between the maximum diameter position and the hole bottom surface of the stud hole, characterised in that: the opening side part has an opening area formed in an inverted cone shape whose diameter reduces gradually from the surface side of the tread toward the hole bottom surface of the stud hole and the opening diameter of the opening of the opening area is larger than the cross-sectional diameter of the bottom side part.