mhurhangee/ep-ind-claims huggingface dataset:
A heated whip hose (10; 30) comprising: a hose core configured to deliver a fluid; a heating element disposed around the hose core; a protective layer disposed around the heating element and hose core; an insulating layer (22, 24) disposed around the protective layer; and an abrasion protection layer disposed around insulating layer and forming an outer sheath, wherein the heating element is disposed around a partial length of the hose core to form a heated section and an unheated section, wherein the heated section extends from a first end configured to couple to a main hose and wherein the unheated section extends from a second end opposite the first end, the second end configured to couple to a fluid delivery device, and wherein the length of the unheated section lies within a range from greater than about 6 inches (15.24 cm) from the second end up to about 72 inches (182.88 cm) from the second end of the heated whip hose. a hose core configured to deliver a fluid; a heating element disposed around the hose core; a protective layer disposed around the heating element and hose core; an insulating layer (22, 24) disposed around the protective layer; and an abrasion protection layer disposed around insulating layer and forming an outer sheath, wherein the heating element is disposed around a partial length of the hose core to form a heated section and an unheated section, wherein the heated section extends from a first end configured to couple to a main hose and wherein the unheated section extends from a second end opposite the first end, the second end configured to couple to a fluid delivery device, and wherein the length of the unheated section lies within a range from greater than about 6 inches (15.24 cm) from the second end up to about 72 inches (182.88 cm) from the second end of the heated whip hose.
An attenuated Histophilus somni (H. somni) strain, which is capable of providing a safe and effective immune response in a bovine animal against H. somni, or diseases caused by H. somni, having at least the following genes mutated, including completely deleted, relative to a reference virulent H. somni strain, to eliminate the ability of the gene to express its cognate gene product: HSM_0077, HSM_0270, HSM_0708, HSM_0975, HSM_1191, HSM_1257, HSM_1448, HSM_1542, HSM_1571, HSM_1624, HSM_1714, HSM_1726, HSM_1728, HSM_1730, HSM_1734, HSM_1736, HSM_1737, HSM_1741 and HSM_1793; wherein this relative deficiency of virulence factor-encoding genes renders the attenuated strain incapable of causing infection in the bovine animal; and further retaining at least the following genes, in comparison with a highly virulent H. somni strain: HSM_0052, HSM_0164, HSM_0268, HSM_0274, HSM 0338, HSM_ 0346, HSM 0377, HSM 0394, HSM 0598, HSM_0695, HSM 0749, HSM 0844, HSM_0938, HSM_0977, HSM 0978, HSM 1022, HSM 1089, HSM 1090, HSM_ 1160, HSM 1212, HSM 1426, HSM_ 1484, HSM_1616, HSM_1647, HSM_ 1651, HSM_1667, HSM_ 1794 and HSM_1889.
A method, comprising: requesting, by a hardware processor, identification of metric-providing software service instances,, operating on a plurality of computing nodes, each particular metric-providing software service instance including a metric provider that produces pre-calculated metric data for the particular metric-providing software service instance, the pre-calculated metric data including a metric calculated for the particular metric-providing software service instance, and the metric being calculated at a particular computing node,,, operating the particular metric-providing software service instance; responsive to the requesting, receiving response data by the hardware processor; collecting, by the hardware processor, pre-calculated metric data from at least one of the metric-providing software service instances identified by the response data; and aggregating, by the hardware processor, the collected pre-calculated metric data into a metric packet, wherein the aggregating is based on software service identifiers, timestamps, and metric names included in the pre-calculated metric data, wherein the response data includes identification of the metric-providing software service instances and comprises at least one universal resource locator for collecting pre-calculated metric data from the at least one of the metric-providing software service instances. requesting, by a hardware processor, identification of metric-providing software service instances,, operating on a plurality of computing nodes, each particular metric-providing software service instance including a metric provider that produces pre-calculated metric data for the particular metric-providing software service instance, the pre-calculated metric data including a metric calculated for the particular metric-providing software service instance, and the metric being calculated at a particular computing node,,, operating the particular metric-providing software service instance; responsive to the requesting, receiving response data by the hardware processor; collecting, by the hardware processor, pre-calculated metric data from at least one of the metric-providing software service instances identified by the response data; and aggregating, by the hardware processor, the collected pre-calculated metric data into a metric packet, wherein the aggregating is based on software service identifiers, timestamps, and metric names included in the pre-calculated metric data, wherein the response data includes identification of the metric-providing software service instances and comprises at least one universal resource locator for collecting pre-calculated metric data from the at least one of the metric-providing software service instances.
An exhaust gas purification system comprising: an exhaust gas purification device which is arranged in an exhaust gas route of a common rail type engine; and at least one of an intake air throttle device and an exhaust gas throttle device which are arranged in intake and exhaust systems of the engine, wherein in the case that a clogged state of the exhaust gas purification device becomes equal to or more than a prescribed level, an auxiliary renewing mode which raises a temperature of an exhaust gas from the engine by actuating at least one of the intake air throttle device and the exhaust gas throttle device is executed, and in the case that the clogged state of the exhaust gas purification device is not improved even by executing the auxiliary renewing mode, a forced renewing mode which supplies a fuel into the exhaust gas purification device by a post injection is executed, characterized in that in the case that the clogged state of the exhaust gas purification device is not improved even by executing the forced renewing mode, an emergency renewing mode which supplies the fuel into the exhaust gas purification device by the post injection and maintains a rotating speed of the engine at a predetermined value is executed. an exhaust gas purification device which is arranged in an exhaust gas route of a common rail type engine; and at least one of an intake air throttle device and an exhaust gas throttle device which are arranged in intake and exhaust systems of the engine, wherein in the case that a clogged state of the exhaust gas purification device becomes equal to or more than a prescribed level, an auxiliary renewing mode which raises a temperature of an exhaust gas from the engine by actuating at least one of the intake air throttle device and the exhaust gas throttle device is executed, and in the case that the clogged state of the exhaust gas purification device is not improved even by executing the auxiliary renewing mode, a forced renewing mode which supplies a fuel into the exhaust gas purification device by a post injection is executed, characterized in that in the case that the clogged state of the exhaust gas purification device is not improved even by executing the forced renewing mode, an emergency renewing mode which supplies the fuel into the exhaust gas purification device by the post injection and maintains a rotating speed of the engine at a predetermined value is executed.
Textile strip forming at least partially a safety belt intended to be fastened to a fixed structure of a seat or of a passenger compartment, characterised in that a notch is formed on the textile strip in order to allow for the folding of the textile strip onto itself in such a way as to surround the fixed structure of the seat or of the passenger compartment via insertion of an end (1, 1a) of the textile strip into the notch made in the textile strip.
A recombinant adeno-associated viral (rAAV) particle comprising: a modified capsid protein, wherein the modified capsid protein comprises one or more non-native amino acid substitutions at positions corresponding to one or more heparin- sulfate-binding surface-exposed amino acid residues of a wild-type AAV2 capsid protein as set forth in SEQ ID NO:2; or to amino acid residues corresponding thereto in any one of the wild-type AAV1, AAV3, AAV4, AAV5, AAV6, AAV7, AAV9, or AAV10 capsid proteins, as set forth, respectively, in SEQ ID NO: 1, SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:5, SEQ ID NO:6, SEQ ID NO:7, SEQ ID NO:9, or SEQ ID NO: 10, wherein the non-native amino acid substitutions occur at amino acid residues: (a) Y444, T491, Y500, R585, R588, R487, and Y730; (b) Y444, T491, Y500, R585, and Y730; (c) Y444, T491, Y500, R588, and Y730; (d) Y444, T491, Y500, R585, R588, and Y730; (e) Y444, T491, Y500, E530, R585, R588, R487, and Y730; (f) Y444, T491, Y500, E530, R585, and Y730; (g) Y444, T491, Y500, E530, R588, and Y730; or (h) Y444, T491, Y500, E530, R585, R588, and Y730 of the wild-type AAV2 capsid protein as set forth in SEQ ID NO:2, or at equivalent amino acid positions corresponding thereto in any one of the wild-type AAV1, AAV3, AAV4, AAV5, AAV6, AAV7, AAV9, or AAV10 capsid proteins, as set forth, respectively, in SEQ ID NO: I, SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:5, SEQ ID NO:6, SEQ ID NO:7, SEQ ID NO:9, or SEQ ID NO: 10. (a) Y444, T491, Y500, R585, R588, R487, and Y730; (b) Y444, T491, Y500, R585, and Y730; (c) Y444, T491, Y500, R588, and Y730; (d) Y444, T491, Y500, R585, R588, and Y730; (e) Y444, T491, Y500, E530, R585, R588, R487, and Y730; (f) Y444, T491, Y500, E530, R585, and Y730; (g) Y444, T491, Y500, E530, R588, and Y730; or (h) Y444, T491, Y500, E530, R585, R588, and Y730
A protective control system, comprising: a merging unit (10, 10A, 10B) configured to receive an analog signal indicating a measured state of a power system, configured to convert said analog signal into a digital signal, and output a trip signal for controlling a circuit breaker provided in said power system; a calculation device configured to determine a state of said trip signal for controlling a state of said circuit breaker based on said digital signal converted by said merging unit (10, 10A, 10B); a substation automation system device configured to perform at least one of monitoring and instructing the power system; a process bus that connects said merging unit and said calculation device to each other; and a station bus that connects said merging unit (10, 10A, 10B), said calculation device and said substation automation system device to one another, said process bus and said station bus being communication transmission paths independent from each other, characterized in that said calculation device being configured to be capable of transmitting a trip instruction to said merging unit (10, 10A, 10B) through both said process bus and said station bus, said trip instruction being for outputting said trip signal. a merging unit (10, 10A, 10B) configured to receive an analog signal indicating a measured state of a power system, configured to convert said analog signal into a digital signal, and output a trip signal for controlling a circuit breaker provided in said power system; a calculation device configured to determine a state of said trip signal for controlling a state of said circuit breaker based on said digital signal converted by said merging unit (10, 10A, 10B); a substation automation system device configured to perform at least one of monitoring and instructing the power system; a process bus that connects said merging unit and said calculation device to each other; and a station bus that connects said merging unit (10, 10A, 10B), said calculation device and said substation automation system device to one another, said process bus and said station bus being communication transmission paths independent from each other, characterized in that said calculation device being configured to be capable of transmitting a trip instruction to said merging unit (10, 10A, 10B) through both said process bus and said station bus, said trip instruction being for outputting said trip signal.
A photochromic polypropylene fiber, characterized by comprising: 98 to 99 parts by weight of polypropylene; 0.2 to 0.8 parts by weight of a photochromic agent; 0.1 to 1 parts by weight of an ultraviolet absorber, and the ultraviolet absorber comprising and 0.1 to 1 parts by weight of a light stabilizer, and the light stabilizer comprising wherein n is 10-14. 0.2 to 0.8 parts by weight of a photochromic agent; 0.1 to 1 parts by weight of an ultraviolet absorber, and the ultraviolet absorber comprising and 0.1 to 1 parts by weight of a light stabilizer, and the light stabilizer comprising wherein n is 10-14.
Method of manufacturing a filter press plate, adapted to be interposed during use between adjacent plates of a plate pack defining, along with said plates, an upstream filtering chamber and a downstream filtering chamber, said method comprising the steps of: providing a sheet of reinforcement material lined on both sides by an elastomeric material, to define a half-processed partition wall of the filter press plate; providing at least one impression die; impressing a textured surface on at least a face of the partition wall, by placing the at least one impression die against the corresponding face of the half-processed partition wall and pressing them together; curing the half-processed partition wall in order to obtain a partition wall with at least one of a first face or a second face having a textured surface; coupling said partition wall to a peripheral frame made of rigid material so as to define the filter press plate; wherein the impression die is a textile sheet. providing a sheet of reinforcement material lined on both sides by an elastomeric material, to define a half-processed partition wall of the filter press plate; providing at least one impression die; impressing a textured surface on at least a face of the partition wall, by placing the at least one impression die against the corresponding face of the half-processed partition wall and pressing them together; curing the half-processed partition wall in order to obtain a partition wall with at least one of a first face or a second face having a textured surface; coupling said partition wall to a peripheral frame made of rigid material so as to define the filter press plate; wherein the impression die is a textile sheet.
A method of transitioning a memory controller from a sleep mode of operation to an active mode of operation, characterised by; receiving at the memory controller an indication of a remaining portion of a self-refresh interval since a most-recent dynamic random access memory-triggered self-refresh of a dynamic random access memory, DRAM; in the memory controller, counting down the remaining portion of the self-refresh interval; and from the memory controller, triggering an initial refresh cycle in the DRAM responsive to the counting down of the remaining portion of the self-refresh interval.
A signal processing device (10, 20), adapted to filter signals coming from a sensor and transfer the signals to a control device, the signal processing device (10, 20) comprising: a data acquiring element, adapted for periodically acquiring the signals from the sensor, so as to obtain the signals of a time series as time series signals; a plurality of frequency filters (121, 122,123), adapted for filtering the time series signals acquired by the data acquiring element according to frequencies, wherein frequency bands suppressed by the frequency filters (121, 122,123) are not repeated: and a transfer element, adapted for transferring the signal filtered by at least one of the frequency filters (121, 122,123) to the control device, the signal processing device being characterized in further comprising: a filter switching element, adapted for switching each of the frequency filters (121, 122,123) according to whether the plurality of frequency filters (121, 122,123) are adapted to the time series signals acquired by the data acquiring element. a data acquiring element, adapted for periodically acquiring the signals from the sensor, so as to obtain the signals of a time series as time series signals; a plurality of frequency filters (121, 122,123), adapted for filtering the time series signals acquired by the data acquiring element according to frequencies, wherein frequency bands suppressed by the frequency filters (121, 122,123) are not repeated: and a transfer element, adapted for transferring the signal filtered by at least one of the frequency filters (121, 122,123) to the control device, the signal processing device being characterized in further comprising: a filter switching element, adapted for switching each of the frequency filters (121, 122,123) according to whether the plurality of frequency filters (121, 122,123) are adapted to the time series signals acquired by the data acquiring element. a filter switching element, adapted for switching each of the frequency filters (121, 122,123) according to whether the plurality of frequency filters (121, 122,123) are adapted to the time series signals acquired by the data acquiring element.
Method for locating at least one mobile element in a predetermined zone, this method comprising the following steps: - supplying power to at least one on-board module in the mobile element, this on-board module comprising an electronic circuit and at least one on-board coil, - generating a locating signal by the electronic circuit and transmission of this locating signal via the on-board coil, - picking up the locating signal by means of receiver coils distributed on a support in proximity to the predetermined zone; each receiver coil having the function of picking up said locating signal when the mobile element is in proximity, - determining the location of the mobile element in the predetermined zone by detecting a signal level on said support which is addressed in rows and columns in the form of an array by means of a processing unit connected to this support, characterized in that the method comprises following steps for generating the locating signal: - use of the electronic circuit and the on-board coil as an oscillating RLC circuit, - sudden interruption of the current through the on-board coil in order to generate the locating signal. - supplying power to at least one on-board module in the mobile element, this on-board module comprising an electronic circuit and at least one on-board coil, - generating a locating signal by the electronic circuit and transmission of this locating signal via the on-board coil, - picking up the locating signal by means of receiver coils distributed on a support in proximity to the predetermined zone; each receiver coil having the function of picking up said locating signal when the mobile element is in proximity, - determining the location of the mobile element in the predetermined zone by detecting a signal level on said support which is addressed in rows and columns in the form of an array by means of a processing unit connected to this support, - use of the electronic circuit and the on-board coil as an oscillating RLC circuit, - sudden interruption of the current through the on-board coil in order to generate the locating signal.
Vacuum deposition source heating system, mountable to a vacuum deposition system and comprising: - a heating element designed for heating a deposition source, - a power supply element, electrically connected to the heating element for providing electrical power to the heating element; - a connection member, electrically connecting the power supply element to the heating element, whereby the power supply element is mechanically mounted to the connection member in an elastic manner, and whereby the connection member comprises a spring element made of an elastic carbon material. - a heating element designed for heating a deposition source, - a power supply element, electrically connected to the heating element for providing electrical power to the heating element; - a connection member, electrically connecting the power supply element to the heating element,
Optoelectronic device comprising exactly one optical element and exactly one optoelectronic semiconductor chip suitable for generating an electromagnetic radiation, said optoelectronic semiconductor chip being a light-emitting diode, wherein the optical element - is embodied in an integral fashion, - comprises two radiation passage surfaces situated opposite one another, - has a lens arrangement comprising a plurality of lens regions delimited from one another, wherein the lens arrangement is shaped in one of the radiation passage surfaces and the other radiation passage surface is embodied in a smooth fashion, and wherein the lens regions are configured and arranged to the effect that the radiation passing through the optical element is shaped into different, cylindrical and/or mutually separate wavefronts, characterized in that an average diameter of the lens regions is more than 1.5 times and less than three times an average diameter of the chip surface facing the optical element and a two-dimensional arrangement grid of the lens regions corresponds to a grid of a pattern to be formed with the radiation. - is embodied in an integral fashion, - comprises two radiation passage surfaces situated opposite one another, - has a lens arrangement comprising a plurality of lens regions delimited from one another,
An electric road track configured to conductively provide electric power to a vehicle, the electric road track comprising: a base extending along the electric road track and being configured to be arranged against a road, a contact line, extending along the base, via which power collectors (14a, 14b, 14c) of the vehicle is configured to conductively draw electric power from the electric road track, characterized in that the contact line comprises friction enhancing portions arranged along the electric road track, each friction enhancing portion comprising a friction element and a plate, wherein the plate is resiliently depressible towards the base upon a force exceeding a threshold value is exerted onto said plate, such that the friction element is exposed. a base extending along the electric road track and being configured to be arranged against a road, a contact line, extending along the base, via which power collectors (14a, 14b, 14c) of the vehicle is configured to conductively draw electric power from the electric road track, characterized in that the contact line comprises friction enhancing portions arranged along the electric road track, each friction enhancing portion comprising a friction element and a plate, wherein the plate is resiliently depressible towards the base upon a force exceeding a threshold value is exerted onto said plate, such that the friction element is exposed.