mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: sending, from a transmitter entity (110, 120) to a receiver entity (120, 110), first information using a first ciphering configuration; selecting, by the transmitter entity during a security mode control procedure, an activation time for a second ciphering configuration; sending, from the transmitter entity to the receiver entity, a first security message with the activation time; sending, from the transmitter entity to the receiver entity, second information using the first ciphering configuration after sending the first security message and before the activation time; sending, from the transmitter entity to the receiver entity, third information using the second ciphering configuration after the activation time; and characterised in that the selecting of the activation time is based on an expected delay in receiving an acknowledgement for the first security message and current radio conditions. sending, from a transmitter entity (110, 120) to a receiver entity (120, 110), first information using a first ciphering configuration; selecting, by the transmitter entity during a security mode control procedure, an activation time for a second ciphering configuration; sending, from the transmitter entity to the receiver entity, a first security message with the activation time; sending, from the transmitter entity to the receiver entity, second information using the first ciphering configuration after sending the first security message and before the activation time; sending, from the transmitter entity to the receiver entity, third information using the second ciphering configuration after the activation time; and
Measuring apparatus for determining the degree of bacterial contamination of process liquids, comprising at least one gas sensor for measuring the gas concentration of a gas producible or produced by aerobic bacteria possibly or actually present in the process liquid and an evaluating device, which is connected therewith, for evaluation of a sensor signal which is generated by the at least one gas sensor and which is correlated with the degree of bacterial contamination, characterised in that a geometric gas collecting hollow body is provided, which hollow body has an immersion cavity and is partly immersible or immersed in the process liquid in such a way that a gas collection cavity for collecting the gas escaping from the process liquid into the environment is formed in the gas collecting hollow body above a liquid surface, which is present in the immersion cavity, of the process liquid, that a gas feed line is provided, one feed line end of which communicates with the gas collection cavity of the gas collecting hollow body and the other feed line end of which communicates with a device cavity of a sensor device, which includes the at least one gas sensor for measuring the concentration of the gas escaping from the process liquid and which is in gas connection with the at least one gas sensor, that a gas return line, which is open to the outside exclusively at its two return line ends, is provided, one return line end of which communicates with the device cavity of the sensor device and the other return line end of which communicates with the gas collection cavity of the gas collecting hollow body, and that a gas pump for pumping the gas from the gas collection cavity of the gas collecting hollow body by way of the at least one gas sensor back to the gas collection cavity of the gas collecting hollow body is provided.
A printing system, comprising: a media transport device to move a medium at a speed ranging from 15.24 mpm to 609.6 mpm; an ink applicator to apply ink on the medium; a treatment applicator (12, 14) to apply a treatment composition on the medium before or after the ink is applied on the medium to form a printed-on medium, the treatment composition including a liquid vehicle, a polyvalent metal salt fixing agent, and a latex resin having an acid number less than 20; and a heating system programmed to: i) dry the printed-on medium at a predetermined temperature for a reduced dwell time ranging from 1 second to 40 seconds; and ii) leave residual moisture in the printed-on medium for a predetermined time after the reduced dwell time, the residual moisture being at a level that is 3% to 5% higher than an initial moisture content of the medium prior to treatment composition and ink application. a media transport device to move a medium at a speed ranging from 15.24 mpm to 609.6 mpm; an ink applicator to apply ink on the medium; a treatment applicator (12, 14) to apply a treatment composition on the medium before or after the ink is applied on the medium to form a printed-on medium, the treatment composition including a liquid vehicle, a polyvalent metal salt fixing agent, and a latex resin having an acid number less than 20; and a heating system programmed to: i) dry the printed-on medium at a predetermined temperature for a reduced dwell time ranging from 1 second to 40 seconds; and ii) leave residual moisture in the printed-on medium for a predetermined time after the reduced dwell time, the residual moisture being at a level that is 3% to 5% higher than an initial moisture content of the medium prior to treatment composition and ink application.
A computing device operated by a user of the computing device, said computing device comprising: an access control module configured to verify, using an access verification key, a request to access applications and data (207, 218) on the computing device by an authorized external access entity, where the authorized external access entity is a different entity than the user and is external to the computing device, and the access request verified using the access verification key is generated externally to the computing device; an application authorization module configured to use an application verification key to verify a digitally signed request to authorize execution of an application; a first partition coupled to the application authorization module for executing applications that can be accessed by the user in which only applications authorized via a cryptographic verification performed by the application authorization module can execute; a second partition (205, 210) for executing applications in which applications (205, 212) that execute can be accessed by the authorized external access entity and by the user; and coupled to the first and second partitions (310; 205, 210) and executing on the computing device, a set of protection modules (215, 240, 250) configured to protect data used by applications authorized to execute in the first partition from access by applications (205, 212) executing in the second partition (205, 210) and to prevent the authorized external access entity from accessing protected data (308, 317) used by applications authorized to execute in the first partition. an access control module configured to verify, using an access verification key, a request to access applications and data (207, 218) on the computing device by an authorized external access entity, where the authorized external access entity is a different entity than the user and is external to the computing device, and the access request verified using the access verification key is generated externally to the computing device; an application authorization module configured to use an application verification key to verify a digitally signed request to authorize execution of an application; a first partition coupled to the application authorization module for executing applications that can be accessed by the user in which only applications authorized via a cryptographic verification performed by the application authorization module can execute; a second partition (205, 210) for executing applications in which applications (205, 212) that execute can be accessed by the authorized external access entity and by the user; and coupled to the first and second partitions (310; 205, 210) and executing on the computing device, a set of protection modules (215, 240, 250) configured to protect data used by applications authorized to execute in the first partition from access by applications (205, 212) executing in the second partition (205, 210) and to prevent the authorized external access entity from accessing protected data (308, 317) used by applications authorized to execute in the first partition.
A vaccine for an avian comprising a C. perfringens Type A alpha toxoid antigen, wherein said antigen has 2 or more Total Combining Power, with the proviso that only a single C. perfringens Type alpha toxoid antigen is present in said vaccine and wherein the vaccine comprises an adjuvant, the adjuvant is not an aluminium hydroxide, and the adjuvant is comprised in a water-in-oil emulsion along with the antigen.
A polypeptide having UGT74G1 activity, which polypeptide comprises an amino acid sequence which, when aligned with a polypeptide having UGT activity comprising the sequence set out in SEQ ID NO: 2, comprises at least one substitution of an amino acid corresponding to any of amino acids at positions 35, 189, 280, 284, 285, 334 or 373 said positions being defined with reference to SEQ ID NO: 2 and wherein the polypeptide has an improved UGT74G1 activity as compared with a reference polypeptide having UGT activity comprising the UGT of SEQ ID NO: 2, wherein said polypeptide has an amino acid sequence having at least 70% sequence identity with SEQ ID NO: 2, wherein the improved activity is the ability of increasing production of steviol glycoside in a recombinant cell capable of steviol glycoside production in comparison with a recombinant cell capable of such production and which expresses the reference polypeptide of SEQ ID NO: 2 and/or wherein the improved activity is the ability of decreasing the production of non-steviol glycosides in a recombinant cell capable of steviol glycoside production in comparison with a recombinant cell capable of such production and which expresses the reference polypeptide of SEQ ID NO: 2. 35, 189, 280, 284, 285, 334 or 373 said positions being defined with reference to SEQ ID NO: 2 and wherein the polypeptide has an improved UGT74G1 activity as compared with a reference polypeptide having UGT activity comprising the UGT of SEQ ID NO: 2, wherein said polypeptide has an amino acid sequence having at least 70% sequence identity with SEQ ID NO: 2, wherein the improved activity is the ability of increasing production of steviol glycoside in a recombinant cell capable of steviol glycoside production in comparison with a recombinant cell capable of such production and which expresses the reference polypeptide of SEQ ID NO: 2 and/or wherein the improved activity is the ability of decreasing the production of non-steviol glycosides in a recombinant cell capable of steviol glycoside production in comparison with a recombinant cell capable of such production and which expresses the reference polypeptide of SEQ ID NO: 2.
A method for wireless communications at a first device, comprising: selecting, from a plurality of antenna elements of an antenna module, a subset of antenna elements of the plurality of antenna elements for a communication link with a second device, the subset of antenna elements comprising a number of antenna elements that the first device is capable of operating; transmitting, to the second device, a message indicating the number of antenna elements in the selected subset of antenna elements, wherein transmitting the message comprises transmitting a request message for the second device to adjust a number of antenna elements operating at the second device based at least in part on the number of antenna elements in the selected subset of antenna elements at the first device; and communicating with the second device over the communication link using the selected subset of antenna elements and based at least in part on the message. selecting, from a plurality of antenna elements of an antenna module, a subset of antenna elements of the plurality of antenna elements for a communication link with a second device, the subset of antenna elements comprising a number of antenna elements that the first device is capable of operating; transmitting, to the second device, a message indicating the number of antenna elements in the selected subset of antenna elements, wherein transmitting the message comprises transmitting a request message for the second device to adjust a number of antenna elements operating at the second device based at least in part on the number of antenna elements in the selected subset of antenna elements at the first device; and communicating with the second device over the communication link using the selected subset of antenna elements and based at least in part on the message.
An electronic device, comprising: a piezoelectric element having a longitudinal direction; a panel configured to support the piezoelectric element; a housing configured to conduct a vibration resulting from a vibration of the panel; and a joining member configured to join the panel and the housing, wherein the panel is configured to be directly bent by the piezoelectric element in the longitudinal direction, thus generating air-conduction sound and human body vibration sound that is transmitted through a part of a human body when a user places the part of the human body in contact with the panel, and the housing includes a first housing portion and a second housing portion located inward of the first housing portion, characterized by a camera module, a battery and a dynamic speaker located between the second housing portion and the first housing portion, a first elastic body disposed between the battery and the first housing portion, a second elastic body disposed between the dynamic speaker and the first housing portion, a third elastic body disposed between the camera module and the second housing portion, and a fourth elastic body disposed between the camera module and the first housing portion. a piezoelectric element having a longitudinal direction; a panel configured to support the piezoelectric element; a housing configured to conduct a vibration resulting from a vibration of the panel; and a joining member configured to join the panel and the housing, wherein the panel is configured to be directly bent by the piezoelectric element in the longitudinal direction, thus generating air-conduction sound and human body vibration sound that is transmitted through a part of a human body when a user places the part of the human body in contact with the panel, and the housing includes a first housing portion and a second housing portion located inward of the first housing portion, characterized by a camera module, a battery and a dynamic speaker located between the second housing portion and the first housing portion, a first elastic body disposed between the battery and the first housing portion, a second elastic body disposed between the dynamic speaker and the first housing portion, a third elastic body disposed between the camera module and the second housing portion, and a fourth elastic body disposed between the camera module and the first housing portion.
A deterioration detection device provided with a protection tube thermocouple for detecting deterioration of the protection tube thermocouple by applying current to a thermocouple of the protection tube thermocouple, wherein the protection tube thermocouple includes the thermocouple, and a protection tube which accommodates the thermocouple, characterized in that the protection tube includes: a conical portion formed on a front end side of the protection tube; a hollow portion which extends in a length direction of the protection tube for connecting between a front end and a rear end of the protection tube in the inside of the protection tube, and into which the thermocouple is received; and a main body portion formed on the rear end side with respect to the conical portion, the hollow portion in the conical portion has a tapered portion configured such that a sectional area of the hollow portion decreases toward the front end; wherein the hollow portion includes: a cylindrical portion which is formed on a rear end side with respect to the tapered portion, and a radius of the cylindrical portion being set to be larger than a radius of the tapered portion on the rear end side; and a step portion which is formed on the front end side with respect to a connection portion between the conical portion and the main body portion, and which connects between the cylindrical portion and the tapered portion, wherein from the connection portion the outer surface of the conical portion extends straight to the front end side. a conical portion formed on a front end side of the protection tube; a hollow portion which extends in a length direction of the protection tube for connecting between a front end and a rear end of the protection tube in the inside of the protection tube, and into which the thermocouple is received; and a main body portion formed on the rear end side with respect to the conical portion, a cylindrical portion which is formed on a rear end side with respect to the tapered portion, and a radius of the cylindrical portion being set to be larger than a radius of the tapered portion on the rear end side; and a step portion which is formed on the front end side with respect to a connection portion between the conical portion and the main body portion, and which connects between the cylindrical portion and the tapered portion,
A container (100a, 100b) for holding particulate materials comprising: a molded pulp shell body comprising a first pulp shell and second pulp shell that are hinged to form an enclosed body or multiple pulp shells (110a, 110b, 110c, 110d) including at least a first pulp shell and a second pulp shell joined together to form the enclosed body; wherein the molded pulp shell body is configured to contain materials within the enclosed body; a neck and an orifice in the molded pulp shell body configured to permit passage of the materials through the orifice into or out of the molded pulp shell body, wherein at least a portion of a first side of the hinged pulp shell forms an overlap or an attachment with a second side of the hinged pulp shell, or at least a portion of the first pulp shell forms the overlap or an attachment with the second pulp shell, to provide a substantially flat surface at the overlap; characterised by a support ring (640, 830a, 830b) attached to the molded pulp shell body in contact with an interior surface of the molded pulp shell body at the neck of the molded pulp shell body and surrounding the orifice, thereby providing support to the neck of the molded pulp shell body. a molded pulp shell body comprising a first pulp shell and second pulp shell that are hinged to form an enclosed body or multiple pulp shells (110a, 110b, 110c, 110d) including at least a first pulp shell and a second pulp shell joined together to form the enclosed body; wherein the molded pulp shell body is configured to contain materials within the enclosed body; a neck and an orifice in the molded pulp shell body configured to permit passage of the materials through the orifice into or out of the molded pulp shell body, wherein at least a portion of a first side of the hinged pulp shell forms an overlap or an attachment with a second side of the hinged pulp shell, or at least a portion of the first pulp shell forms the overlap or an attachment with the second pulp shell, to provide a substantially flat surface at the overlap; characterised by a support ring (640, 830a, 830b) attached to the molded pulp shell body in contact with an interior surface of the molded pulp shell body at the neck of the molded pulp shell body and surrounding the orifice, thereby providing support to the neck of the molded pulp shell body.
Method for determining a gas concentration in a measurement gas using a gas sensor, a multiplicity of value pairs (I i, p i) of respectively a gas concentration signal (I i) and a pressure signal (p i) being registered in a first mode of operation of an internal combustion engine, in which the gas concentration in the measurement gas is known, and a compensation parameter (k) and a scaling factor (m adap) of the gas sensor being determined using these value pairs (I i, p i) as a starting point, and a gas concentration to be determined subsequently being determined in a second mode of operation of the internal combustion engine, on the basis of a gas concentration signal (I nom) measured in the second mode of operation of the internal combustion engine and with the compensation parameter (k) and the scaling factor (m adap) of the gas sensor being taken into account, characterized in that the compensation parameter (k) and the scaling factor (m adap) are determined in the first mode of operation as the solution of two equations, the gas concentration signals (I i) and the pressure signals (p i) only being included indirectly in the equations by way of coefficients (A 1 -A 6, B 1 -B 3) which are formed by the summation of terms that are dependent on the gas concentration signals (I i) and on the pressure signals (p i).
A distillation plant comprising an elongated vessel extending along a longitudinal axis (x) and defining an inner space, and a plurality of plate heat exchangers (3, 4), which in an operating position are arranged after each other along the longitudinal axis (x) of the vessel, wherein each plate heat exchanger (3, 4) comprises a first end plate, a second end plate and a plurality of heat exchanger plates, each defining an extension plane (p), wherein the extension plane (p) of the heat exchanger plates of the plurality of plate heat exchangers extends in parallel with the longitudinal axis (x) of the vessel, wherein the heat exchanger plates are arranged between the first end plate and the second end plate to form first plate interspaces and second plate interspaces, the first and second plate interspaces (8, 9) being arranged in an alternating order in the plate heat exchanger, and wherein the first end plate and the heat exchanger plates of each of the plate heat exchangers are provided in the inner space when the plate heat exchangers are in the operating position, wherein the plate heat exchangers (3, 4) are removable from the operating position out of the vessel by being moved in a displacement direction (y), which is perpendicular to the extension plane (p) of the heat exchanger plates, characterized in that each of the plate heat exchangers (3, 4) is associated with a respective rectangular opening through the vessel, that each of the plate heat exchangers (3, 4) is removable from the operating position out of the vessel through the associated rectangular opening, and that the plate heat exchangers (3, 4) are supported by a guide member, which permits the plate heat exchanger (3, 4) to be moved in the displacement direction (y).
A process for preparing a heterocyclic aldehyde of the formula or comprising a) for the preparation of the aldehyde converting a compound of formula (III-aI) to a compound of the formula by isomerization and oxidizing the compound of formula to the heterocyclic aldehyde or b) for the preparation of the aldehyde converting the compound of formula (III-aI) defined above to a compound of formula (VIII) and oxidizing the compound of formula (VIII) to the heterocyclic aldehyde wherein a heterocyclic group HET denotes a substituted pyrimidine of the structure (a) or a substituted quinoline of the structure (b) a) for the preparation of the aldehyde converting a compound of formula (III-aI) to a compound of the formula by isomerization and oxidizing the compound of formula to the heterocyclic aldehyde or b) for the preparation of the aldehyde converting the compound of formula (III-aI) defined above to a compound of formula (VIII) and oxidizing the compound of formula (VIII) to the heterocyclic aldehyde wherein a heterocyclic group HET denotes a substituted pyrimidine of the structure (a) or a substituted quinoline of the structure (b)