mhurhangee/ep-ind-claims huggingface dataset:
A method of initiating a selective dynamic group, hereinafter referred to as 'SDG', call from an application on a push-to-talk, hereinafter referred to as 'PTT', capable wireless mobile device on a wireless network, the method comprising: receiving (302, 402) an input entered to the application on the wireless mobile device, wherein the input is a concatenated input sequence of call identifiers; determining (304, 404) if one or more PTT call identifiers are present in the input, each PTT call identifier separating unique PTT mobile numbers and identifying the mobile numbers as PTT mobile numbers; validating (312, 412) PTT mobile numbers designated by PTT identifiers based on one of the following criteria; (i) a format of the entered PTT mobile number; and (ii) calling restrictions associated with the wireless mobile device; generating (314, 416) a PTT SDG call sequence using the validated PTT mobile numbers; and initiating (316, 418) the PTT SDG call on the wireless network to the PTT mobile numbers in the sequence; wherein the input sequence is received by detecting concatenated SDG call numbers in message paragraphs in an email message, the concatenated SDG call providing a hyperlink to initiating the PTT call. receiving (302, 402) an input entered to the application on the wireless mobile device, wherein the input is a concatenated input sequence of call identifiers; determining (304, 404) if one or more PTT call identifiers are present in the input, each PTT call identifier separating unique PTT mobile numbers and identifying the mobile numbers as PTT mobile numbers; validating (312, 412) PTT mobile numbers designated by PTT identifiers based on one of the following criteria; (i) a format of the entered PTT mobile number; and (ii) calling restrictions associated with the wireless mobile device; (i) a format of the entered PTT mobile number; and (ii) calling restrictions associated with the wireless mobile device; generating (314, 416) a PTT SDG call sequence using the validated PTT mobile numbers; and initiating (316, 418) the PTT SDG call on the wireless network to the PTT mobile numbers in the sequence; wherein the input sequence is received by detecting concatenated SDG call numbers in message paragraphs in an email message, the concatenated SDG call providing a hyperlink to initiating the PTT call.
A harvester comprising: a grain processing unit with a multistage separation unit to separate grain from crop material other than grain; and a material flow sensor to form an electromagnetic plane through which crop material passes while being sensed, wherein the electromagnetic plane is sandwiched between consecutive stages (154A, 154B) of the separation unit, the material flow sensor comprising a plurality of emitters and a plurality of detectors extending both along an entire length of the sides of the electromagnetic plane, the signals of the detectors indicating crop flow differences along the length of the plane, characterized in that the material flow sensor comprises additional emitters and detectors along opposite ends of the electromagnetic plane, the ends of the plane extending between the respective ends of the sides, the signals of the detectors on the opposite ends indicating crop flow differences between the sides of the plane. a grain processing unit with a multistage separation unit to separate grain from crop material other than grain; and a material flow sensor to form an electromagnetic plane through which crop material passes while being sensed, wherein the electromagnetic plane is sandwiched between consecutive stages (154A, 154B) of the separation unit, the material flow sensor comprising a plurality of emitters and a plurality of detectors extending both along an entire length of the sides of the electromagnetic plane, the signals of the detectors indicating crop flow differences along the length of the plane, characterized in that the material flow sensor comprises additional emitters and detectors along opposite ends of the electromagnetic plane, the ends of the plane extending between the respective ends of the sides, the signals of the detectors on the opposite ends indicating crop flow differences between the sides of the plane.
A wafer chuck, comprising: a support structure having a recessed surface and a first side structurally configured to support a wafer, the support structure defining a cutout that extends inward from a perimeter of the support structure to accommodate an arm of a positioning robot; a first vacuum zone formed on the first side of the support structure, the first vacuum zone at least partially bounded by a first ring extending from the recessed surface of the first side of the support structure; a plurality of first suction cups disposed within the first vacuum zone where one or more of the first suction cups is coupled with an associated channel extending through the support structure; a second vacuum zone formed on the first side of the support structure, the second vacuum zone at least partially bounded by a second ring extending from the recessed surface of the first side of the support structure, where the second ring has a larger diameter than the first ring; a plurality of second suction cups disposed within the second vacuum zone where one or more of the second suction cups is coupled with an associated channel extending through the support structure; and one or more vacuums in fluid communication with each channel, the one or more vacuums structurally configured to provide suction through each channel. a support structure having a recessed surface and a first side structurally configured to support a wafer, the support structure defining a cutout that extends inward from a perimeter of the support structure to accommodate an arm of a positioning robot; a first vacuum zone formed on the first side of the support structure, the first vacuum zone at least partially bounded by a first ring extending from the recessed surface of the first side of the support structure; a plurality of first suction cups disposed within the first vacuum zone where one or more of the first suction cups is coupled with an associated channel extending through the support structure; a second vacuum zone formed on the first side of the support structure, the second vacuum zone at least partially bounded by a second ring extending from the recessed surface of the first side of the support structure, where the second ring has a larger diameter than the first ring; a plurality of second suction cups disposed within the second vacuum zone where one or more of the second suction cups is coupled with an associated channel extending through the support structure; and one or more vacuums in fluid communication with each channel, the one or more vacuums structurally configured to provide suction through each channel.
A beverage capsule, comprising: - a substantially cup-shaped capsule body having an open end and defining a cavity; - an injection wall disposed upon said open end so as to enclose said cavity; and - a quantity of a beverage ingredient disposed within said cavity; - a partition disposed in said cavity, said partition dividing said cavity into a first chamber proximate to said injection wall, and a second chamber in which said quantity of beverage ingredient is disposed; and characterized in that the capsule further comprises - at least one channel extending from said partition, said at least one channel comprising a first end opening into said first chamber at the level of the partition, and a second end opening into said second chamber at a predetermined distance from said partition. - a substantially cup-shaped capsule body having an open end and defining a cavity; - an injection wall disposed upon said open end so as to enclose said cavity; and - a quantity of a beverage ingredient disposed within said cavity; - a partition disposed in said cavity, said partition dividing said cavity into a first chamber proximate to said injection wall, and a second chamber in which said quantity of beverage ingredient is disposed; and characterized in that the capsule further comprises - at least one channel extending from said partition, said at least one channel comprising a first end opening into said first chamber at the level of the partition, and a second end opening into said second chamber at a predetermined distance from said partition.
A process for the specific isotopic labeling of amino acids selected from the group consisting of Valine (Val), Leucine (Leu), and Isoleucine (Ile), in proteins and biomolecular assemblies comprising the following step a): introducing, in a medium containing bacteria overexpressing a protein, a derivative of acetolactate having the following formula: wherein: - X is 1 H or 2 H, - each Y is independently from the others 12 C or 13 C, - R 1 is a methyl group in which the carbon atom is 13 C or 12 C and the hydrogen atoms are independently from each other 1 H or 2 H, - R 2 is either a methyl group in which the carbon atom is 13 C or 12 C and the hydrogen atoms are independently from each other 1 H or 2 H, or an ethyl group in which the carbon atoms are independently from each other 13 C or 12 C and the hydrogen atoms are independently from each other 1 H or 2 H, at the provisos that: 1) the hydrogen atoms of the acetolactate derivative of Formula I are not all, at the same time, either 1 H or 2 H, 2) the hydrogen atoms of R 1 and the hydrogen atoms of R 2 are not all, at the same time, either 1 H or 2 H. introducing, in a medium containing bacteria overexpressing a protein, a derivative of acetolactate having the following formula: wherein: - X is 1 H or 2 H, - each Y is independently from the others 12 C or 13 C, - R 1 is a methyl group in which the carbon atom is 13 C or 12 C and the hydrogen atoms are independently from each other 1 H or 2 H, - R 2 is either a methyl group in which the carbon atom is 13 C or 12 C and the hydrogen atoms are independently from each other 1 H or 2 H, or an ethyl group in which the carbon atoms are independently from each other 13 C or 12 C and the hydrogen atoms are independently from each other 1 H or 2 H, - X is 1 H or 2 H, - each Y is independently from the others 12 C or 13 C, - R 1 is a methyl group in which the carbon atom is 13 C or 12 C and the hydrogen atoms are independently from each other 1 H or 2 H, - R 2 is either a methyl group in which the carbon atom is 13 C or 12 C and the hydrogen atoms are independently from each other 1 H or 2 H, or an ethyl group in which the carbon atoms are independently from each other 13 C or 12 C and the hydrogen atoms are independently from each other 1 H or 2 H, 1) the hydrogen atoms of the acetolactate derivative of Formula I are not all, at the same time, either 1 H or 2 H, 2) the hydrogen atoms of R 1 and the hydrogen atoms of R 2 are not all, at the same time, either 1 H or 2 H.
A slurry bubble column reactor comprising a vessel in the form of a column having an inlet and an outlet, and a heat exchange system comprising: a bundle of generally parallel heat exchange tubes for transporting heat exchange fluid in the longitudinal direction of the column; a first header at one end of the tube bundle for supplying heat exchange fluid to or removing heat exchange fluid from the tubes; two or more first sub-headers connected to the first header via distribution conduits; a second header at the other end of the tube bundle, for removing heat exchange fluid from or supplying heat exchange fluid to the tubes, and one or more second sub- headers connected to the second header via distribution conduits, the second sub-headers also being connected to the tubes thereby connecting the second header to the tubes; the first sub-headers also being connected to the tubes thereby connecting the first header to the tubes; the first sub-headers being located at at least two different positions in the longitudinal direction of the tubes and being located at at least two different positions in the transverse direction of the tubes; the second sub-headers being located at at least two different positions in the longitudinal direction of the tubes and being located at at least two different positions in the transverse direction of the tubes.
A method of calibrating respiratory effort information of a patient comprising: using a pressure sensor to measure air pressure in the patient's oral/nasal cavity during breathing with each of a plurality of successive different amounts of resistance to breathing to produce an oral/nasal pressure signal value for each respective amount of breathing resistance; using respiratory effort monitoring apparatus to acquire a respiratory effort signal from the patient during breathing with each respective amount of breathing resistance; using respiratory effort signal processing circuitry to determine from the respiratory effort signal for each respective amount of breathing resistance a respective breathing effort signal value; using storage circuitry to store a correlation between each oral/nasal pressure signal value and the breathing effort signal value concurrent with that respective oral/nasal pressure signal value; characterized in that each oral/nasal pressure signal value is produced while the patient is awake and the method further comprises: using the respiratory effort monitoring apparatus to acquire a respiratory effort signal from the patient while asleep; using the respiratory effort signal processing circuitry to determine from the respiratory effort signal from the sleeping patient at least one breathing effort signal value for the sleeping patient; and using the correlation to convert the breathing effort signal value for the sleeping patient to a respiratory system air pressure signal value for the sleeping patient. using a pressure sensor to measure air pressure in the patient's oral/nasal cavity during breathing with each of a plurality of successive different amounts of resistance to breathing to produce an oral/nasal pressure signal value for each respective amount of breathing resistance; using respiratory effort monitoring apparatus to acquire a respiratory effort signal from the patient during breathing with each respective amount of breathing resistance; using respiratory effort signal processing circuitry to determine from the respiratory effort signal for each respective amount of breathing resistance a respective breathing effort signal value; using storage circuitry to store a correlation between each oral/nasal pressure signal value and the breathing effort signal value concurrent with that respective oral/nasal pressure signal value; using the respiratory effort monitoring apparatus to acquire a respiratory effort signal from the patient while asleep; using the respiratory effort signal processing circuitry to determine from the respiratory effort signal from the sleeping patient at least one breathing effort signal value for the sleeping patient; and using the correlation to convert the breathing effort signal value for the sleeping patient to a respiratory system air pressure signal value for the sleeping patient.
A turbocharger system comprising: a turbocharger body including a compressor housing and a turbine housing; a turbine shaft rotatably supported by the turbocharger body, and linking a turbine impeller in the turbine housing and a compressor impeller in the compressor housing; a wastegate valve that makes part of a fluid to be guided to the turbine impeller flow to a downstream of the turbine impeller through a bypass hole provided in the turbine housing while bypassing the turbine impeller; an electrically-operated actuator connected to the wastegate valve, and that adjusts a valve lift of the wastegate valve with respect to the bypass hole on the basis of a control value input thereto; a temperature acquisition unit that acquires a target temperature which is any one of a temperature of the turbocharger body and a temperature correlating with the temperature of the turbocharger body; and characterized in: an actuator controller that corrects the control value to be input to the electrically-operated actuator on the basis of the target temperature acquired by the temperature acquisition unit so as to compensate changes in relative positions of the wastegate valve and the bypass hole due to temperature variations on the turbocharger body, and that inputs the control value thus corrected to the electrically-operated actuator. a turbocharger body including a compressor housing and a turbine housing; a turbine shaft rotatably supported by the turbocharger body, and linking a turbine impeller in the turbine housing and a compressor impeller in the compressor housing; a wastegate valve that makes part of a fluid to be guided to the turbine impeller flow to a downstream of the turbine impeller through a bypass hole provided in the turbine housing while bypassing the turbine impeller; an electrically-operated actuator connected to the wastegate valve, and that adjusts a valve lift of the wastegate valve with respect to the bypass hole on the basis of a control value input thereto; a temperature acquisition unit that acquires a target temperature which is any one of a temperature of the turbocharger body and a temperature correlating with the temperature of the turbocharger body; and characterized in: an actuator controller that corrects the control value to be input to the electrically-operated actuator on the basis of the target temperature acquired by the temperature acquisition unit so as to compensate changes in relative positions of the wastegate valve and the bypass hole due to temperature variations on the turbocharger body, and that inputs the control value thus corrected to the electrically-operated actuator.
An apparatus for automated maintenance and expansion of pluripotent cells comprising: (a) an incubator; (b) a liquid handler unit; (c) one or more reservoirs, said reservoirs comprising (i) a viable population of pluripotent cells, (ii) a defined media, the defined media being one in which pluripotent cells can be cultured and maintained in an undifferentiated state, and (iii) one or more of a protease, protease inhibitor and a Rho-associated kinase (ROCK) inhibitor or one or more of a proteolytic chemical; and (d) a controller in communication with the liquid handler unit, wherein the controller is configured to direct the liquid handler unit to effect the automated expansion and maintenance of the pluripotent cells, and directs cell separation by (i) removing media; (ii) contacting cells of the pluripotent cell population with a proteloytic chemical or a proteolytic enzyme, wherein the proteolytic enzyme is trypsin, recombinant trypsin, a trypsin-like proteinase, or TRYPLE and wherein the proteolytic chemical is chelating molecules, preferably EDTA, EGTA or citrate; (iii) incubating and agitating the cells to ensure dissociation of the cells and (iv) seeding the separated cells in a fresh media. (a) an incubator; (b) a liquid handler unit; (c) one or more reservoirs, said reservoirs comprising (i) a viable population of pluripotent cells, (ii) a defined media, the defined media being one in which pluripotent cells can be cultured and maintained in an undifferentiated state, and (iii) one or more of a protease, protease inhibitor and a Rho-associated kinase (ROCK) inhibitor or one or more of a proteolytic chemical; and (i) a viable population of pluripotent cells, (ii) a defined media, the defined media being one in which pluripotent cells can be cultured and maintained in an undifferentiated state, and (iii) one or more of a protease, protease inhibitor and a Rho-associated kinase (ROCK) inhibitor or one or more of a proteolytic chemical; and (d) a controller in communication with the liquid handler unit, wherein the controller is configured to direct the liquid handler unit to effect the automated expansion and maintenance of the pluripotent cells, and directs cell separation by (i) removing media; (ii) contacting cells of the pluripotent cell population with a proteloytic chemical or a proteolytic enzyme, wherein the proteolytic enzyme is trypsin, recombinant trypsin, a trypsin-like proteinase, or TRYPLE and wherein the proteolytic chemical is chelating molecules, preferably EDTA, EGTA or citrate; (iii) incubating and agitating the cells to ensure dissociation of the cells and (iv) seeding the separated cells in a fresh media. (i) removing media; (ii) contacting cells of the pluripotent cell population with a proteloytic chemical or a proteolytic enzyme, wherein the proteolytic enzyme is trypsin, recombinant trypsin, a trypsin-like proteinase, or TRYPLE and wherein the proteolytic chemical is chelating molecules, preferably EDTA, EGTA or citrate; (iii) incubating and agitating the cells to ensure dissociation of the cells and (iv) seeding the separated cells in a fresh media.
A method, the method comprising: detecting (502; 602; 702) a read request for first data in a memory; initiating (512; 612; 712) a first access to a first address in the memory for a first data cache line containing the first data; and initiating(514; 614; 714) a second access to a second address in the memory for a metadata cache line mapped to the first data cache line; identifying a first metadata chunk in the metadata cache line, wherein the first metadata chunk in the metadata cache line contains two or more metadata items for two or more memory protection checks to be performed based on the first data cache line; wherein the metadata cache line is mapped to data cache lines in a one-to-many mapping. detecting (502; 602; 702) a read request for first data in a memory; initiating (512; 612; 712) a first access to a first address in the memory for a first data cache line containing the first data; and initiating(514; 614; 714) a second access to a second address in the memory for a metadata cache line mapped to the first data cache line; identifying a first metadata chunk in the metadata cache line, wherein the first metadata chunk in the metadata cache line contains two or more metadata items for two or more memory protection checks to be performed based on the first data cache line; wherein the metadata cache line is mapped to data cache lines in a one-to-many mapping.
A brake arrangement having a brake, an adaptor and a gear unit, wherein the adaptor has an adaptor housing which is connected to a housing part of the gear unit, wherein a flange part of the brake is connected to the adaptor housing on that side of the adaptor housing remote from the gear unit, wherein a cover part of the brake is connected to the flange part, wherein at least one bearing for the rotatable mounting of the input shaft of the gear unit is received in the adaptor housing, characterised in that a braking surface is formed on the flange part, in particular is finely machined. wherein the adaptor has an adaptor housing which is connected to a housing part of the gear unit, wherein a flange part of the brake is connected to the adaptor housing on that side of the adaptor housing remote from the gear unit, wherein a cover part of the brake is connected to the flange part, wherein at least one bearing for the rotatable mounting of the input shaft of the gear unit is received in the adaptor housing, characterised in that a braking surface is formed on the flange part, in particular is finely machined.
A peptide exhibiting a growth factor activity, represented by the general formula: Glu-Leu-Ile-Glu-His-linker-Arg-Pro-Ala-Asp wherein the linker comprises glycine or glycine and serine amino acid residues, and is 2-18 acids long.