mhurhangee/ep-ind-claims huggingface dataset:
A poly(terephthalate-co-sebacate) resin composition, characterized in that, it comprises the following components: a. poly(terephthalate-co-sebacate); and b. an alkane; wherein a weight content of butanediol terephthalate in the poly(terephthalate-co-sebacate) resin is 41.3% - 56.3%; wherein the alkane is at least one selected from the group consisting of hexadecane, heptadecane, octadecane, nonadecane and eicosane; and wherein a weight content of the alkane is 5ppm-1000ppm based on a total weight of the poly(terephthalate-co-sebacate) resin composition; the weight content of the alkane being tested by the following method: 1.2000g of precisely weighed poly(terephthalate-co-sebacate) resin composition is added in a 25ml volumetric flask and dissolved with chloroform; after the poly(terephthalate-co-sebacate) resin composition is fully dissolved, it is diluted to the mark; a peak area of the alkane in the resulting solution is tested by GC-MS, and a content of alkane in the poly(terephthalate-co-sebacate) resin composition is obtained through calculation based on the peak area of the alkane in the resulting solution and a standard curve of the alkane; and the standard curve is calibrated by an alkane/chloroform solution. a. poly(terephthalate-co-sebacate); and b. an alkane;
High temperature protective coating based on MCrAlY coating, with M at least one element out of the group of Ni, Co and Fe, for a component of a turbo machine, especially a gas turbine, the coating containing at least 1.75 vol.-% chromium borides and consisting of the following chemical composition (in wt.-%): 10-27 Cr; 3-12 Al; 1-4 Si; 0.1-3 Ta; 0.01-3 Y; 0.1-3 B; 0-7 M, with M being a different element out of said group compared to the remainder; the remainder being M and inevitable impurities. 10-27 Cr; 3-12 Al; 1-4 Si; 0.1-3 Ta; 0.01-3 Y; 0.1-3 B; 0-7 M, with M being a different element out of said group compared to the remainder;
A control system for determining a location of a user in a room, comprising a processing unit; a first active sensor comprising a transmitter arranged to transmit a first probe signal into the room; and a second active sensor comprising a transmitter arranged to transmit a second probe signal into the room; wherein said first active sensor is a portable sensor arranged to be carried by the user, and said second active sensor is a fixed infrastructure sensor; characterized in that: said second active sensor further comprises a receiver sensor array arranged to receive said first probe signal and an echo of said second probe signal; wherein said first probe signal is different from said second probe signal such that interference at said receiver sensor array between said first probe signal and said second probe signal is avoided, wherein said processing unit is arranged to detect human presence in the room by means of the second probe signal and its echo, wherein a waveform of the first probe signal is chosen to be uncorrelated to a waveform of the second probe signal and the echo thereof; and wherein said processing unit is arranged to predictively estimate a location of said first active sensor based on said received first probe signal. said second active sensor further comprises a receiver sensor array arranged to receive said first probe signal and an echo of said second probe signal; wherein said first probe signal is different from said second probe signal such that interference at said receiver sensor array between said first probe signal and said second probe signal is avoided, wherein said processing unit is arranged to detect human presence in the room by means of the second probe signal and its echo, wherein a waveform of the first probe signal is chosen to be uncorrelated to a waveform of the second probe signal and the echo thereof; and wherein said processing unit is arranged to predictively estimate a location of said first active sensor based on said received first probe signal.
A computer-implemented method comprising: operating, by one or more processors of a robot, an object recognition client operating on the robot to facilitate object recognition for the robot; determining, by the object recognition client, that a wireless signal provided by a wireless access point in a second area where the robot is required to travel, from a first area, to perform a task is less strong and/or less reliable than in the first area; before operating the robot to enter the second area, downloading, by the object recognition client, from a remote computing system in wireless communication with the robot, one or more targeted object recognition modules (146 1 to 146 i), wherein each targeted object recognition module is usable to provide inference of an object type or pose of an observed object, and wherein the one or more targeted object recognition modules are selected from a library of targeted object recognition modules based on the task to be performed by the robot in the second area; determining that the downloading is complete; after determining that the downloading is complete, operating the robot to enter the second area; obtaining, by the object recognition client, from one or more vision sensors, vision data capturing at least a portion of the second area; and determining, by the object recognition client, based on the vision data and the one or more downloaded targeted object recognition modules, information about an object observed in the second area. operating, by one or more processors of a robot, an object recognition client operating on the robot to facilitate object recognition for the robot; determining, by the object recognition client, that a wireless signal provided by a wireless access point in a second area where the robot is required to travel, from a first area, to perform a task is less strong and/or less reliable than in the first area; before operating the robot to enter the second area, downloading, by the object recognition client, from a remote computing system in wireless communication with the robot, one or more targeted object recognition modules (146 1 to 146 i), wherein each targeted object recognition module is usable to provide inference of an object type or pose of an observed object, and wherein the one or more targeted object recognition modules are selected from a library of targeted object recognition modules based on the task to be performed by the robot in the second area; determining that the downloading is complete; after determining that the downloading is complete, operating the robot to enter the second area; obtaining, by the object recognition client, from one or more vision sensors, vision data capturing at least a portion of the second area; and determining, by the object recognition client, based on the vision data and the one or more downloaded targeted object recognition modules, information about an object observed in the second area.
A rear spoiler assembly for reducing the drag of a tanker vehicle with a semi-trailer tanker, the rear spoiler assembly having a plurality of modular spoiler segments (2.1 to 2.4), characterised in that the spoiler segments (2.1 to 2.4) are connected to each other in such a manner that an arcuate, in particular part-circular-arc-shaped or part-ellipse-shaped rear spoiler assembly is produced.
A measurement probe for measuring a mechanical load, the measurement probe comprising: - an elongated body comprising a tubular portion configured for insertion into a cartridge holder of an injection device, - at least one sensor tab arranged on or integrated into the elongated body, wherein the at least one sensor tab comprises an outside surface portion, an inside surface portion and an outer abutment section, wherein the outer abutment section is configured to abut with an inside of a sidewall of the cartridge holder and wherein the at least one sensor tab is deformable in a radial direction (r), - at least one sensor element mechanically connected to the at least one sensor tab and configured to measure a deformation of the at least one sensor tab. - an elongated body comprising a tubular portion configured for insertion into a cartridge holder of an injection device, - at least one sensor tab arranged on or integrated into the elongated body, wherein the at least one sensor tab comprises an outside surface portion, an inside surface portion and an outer abutment section, wherein the outer abutment section is configured to abut with an inside of a sidewall of the cartridge holder and wherein the at least one sensor tab is deformable in a radial direction (r), - at least one sensor element mechanically connected to the at least one sensor tab and configured to measure a deformation of the at least one sensor tab.
A polyester composition comprising at least one polyester which comprises: (a) a dicarboxylic acid component comprising: (i) 90 to 100 mole % of terephthalic acid residues; (ii) 0 to 10 mole % of aromatic and/or aliphatic dicarboxylic acid residues having up to 20 carbon atoms; and (b) a glycol component comprising: (i) 30 to 42 mole % 2,2,4,4-tetramethyl-1,3-cyclobutanediol residues; and (ii) 58 to 70 mole % ethylene glycol residues; and wherein the total mole % of the dicarboxylic acid component is 100 mole %, and wherein the total mole % of the glycol component is 100 mole %; wherein the inherent viscosity of the polyester is from 0.50 to 0.70 dL/g as determined in 60/40 (wt/wt) phenol/ tetrachloroethane at a concentration of 0.25 g/50 ml at 25oC; and wherein the L* color values for the polyester is 90 or greater, as determined by the L*a*b* color system measured following ASTM D 6290-98 and ASTM E308-99, using measurements from a Hunter Lab Ultrascan XE Spectrophotometer with the following parameters: D65 illuminant, 10 degree observer, reflectance mode with specular angle included, large area view, 1" port size, and where the measurements were performed on polymer granules ground to pass a 1 mm sieve; further comprising: (c) a catalyst/stabilizer component which comprises: (i) titanium atoms in the range of 10-60 ppm based on polymer weight, (ii) manganese atoms in the range of 10-100 ppm based on polymer weight, and (iii) phosphorus atoms in the range of 10-200 ppm based on polymer weight. (a) a dicarboxylic acid component comprising: (i) 90 to 100 mole % of terephthalic acid residues; (ii) 0 to 10 mole % of aromatic and/or aliphatic dicarboxylic acid residues having up to 20 carbon atoms; and (i) 90 to 100 mole % of terephthalic acid residues; (ii) 0 to 10 mole % of aromatic and/or aliphatic dicarboxylic acid residues having up to 20 carbon atoms; and (b) a glycol component comprising: (i) 30 to 42 mole % 2,2,4,4-tetramethyl-1,3-cyclobutanediol residues; and (ii) 58 to 70 mole % ethylene glycol residues; and (i) 30 to 42 mole % 2,2,4,4-tetramethyl-1,3-cyclobutanediol residues; and (ii) 58 to 70 mole % ethylene glycol residues; and
An apparatus comprising: an intracardiac pump device having a path for a guidewire extending through the pump device from a first opening to a second opening; and a lumen which extends from a first end located outside of the pump device, into the pump device through the first opening in the pump device, along the path for the guidewire, out of the pump device through the second opening, to a second end located outside of the pump device; wherein the lumen is configured to receive the guidewire such that when the guidewire passes through the lumen from the first end to the second end, the guidewire is positioned along the path wherein the lumen is configured such that, after the guidewire is received by the lumen and positioned along the path for the guidewire, the lumen may be removed without disturbing the guidewire from the path. an intracardiac pump device having a path for a guidewire extending through the pump device from a first opening to a second opening; and a lumen which extends from a first end located outside of the pump device, into the pump device through the first opening in the pump device, along the path for the guidewire, out of the pump device through the second opening, to a second end located outside of the pump device;
Use of a radiation curable composition as or for producing dental impression materials, the radiation curable composition comprising a cationically hardenable compound comprising at least one or two aziridine moieties having an aziridine equivalent weight in the range of 250 to 25,000 g/equivalent, and a radiation sensitive starter, the radiation sensitive starter comprising a sulfonium salt comprising at least two aryl groups attached to the sulfonium ion, an iodonium salt, a ferrocenium salt, a combination or mixture thereof. a cationically hardenable compound comprising at least one or two aziridine moieties having an aziridine equivalent weight in the range of 250 to 25,000 g/equivalent, and a radiation sensitive starter, the radiation sensitive starter comprising a sulfonium salt comprising at least two aryl groups attached to the sulfonium ion, an iodonium salt, a ferrocenium salt, a combination or mixture thereof.
A device for electrowinning metal using a channeled cell (100, 200, 300, 400), the device comprising: a cathode cell including a channel formed on a substrate having an inlet and an outlet; an anode cell including a channel formed on a substrate having an inlet and an outlet; and an ion-exchange membrane tightly interposed between the cathode and anode cells, characterized in that at least one bead for generating turbulent flow is formed on inner surfaces of the channels formed in the cathode and anode cells. a cathode cell including a channel formed on a substrate having an inlet and an outlet; an anode cell including a channel formed on a substrate having an inlet and an outlet; and an ion-exchange membrane tightly interposed between the cathode and anode cells,
A method associated with a mobile device and a first set of a plurality of different types of wearable devices associated with a first user to provide a first set of functionality to the first user, the method comprising: utilizing the first set of different types of wearable devices in an initial application and configuration state to provide the first set of functionality to the first user, the first user being an identified first type of user associated with a particular user role; communicating data, in a Personal Area Network, between the first set of different types of wearable devices and the mobile device associated with the first user based on the first set of functionality; transmitting, to a wearable device set application and configuration recommendation engine, (i) the identified first type of user of the first user, (ii) identities of wearable devices in the first set of different types of wearable devices associated with the first user, (iii) application information identifying installed applications of the first set of different types of wearable devices providing the first set of functionality to the first user, and (iv) configuration information identifying customizable device and/or application configurations of the first set of different types of wearable devices; and receiving, from the wearable device set application and configuration recommendation engine, recommended application information and configuration information, wherein the recommended configuration is based on crowd-sourced data of other mobile devices having a substantially identical set of different types of wearable devices and substantially identical identified first type of user. utilizing the first set of different types of wearable devices in an initial application and configuration state to provide the first set of functionality to the first user, the first user being an identified first type of user associated with a particular user role; communicating data, in a Personal Area Network, between the first set of different types of wearable devices and the mobile device associated with the first user based on the first set of functionality; transmitting, to a wearable device set application and configuration recommendation engine, (i) the identified first type of user of the first user, (ii) identities of wearable devices in the first set of different types of wearable devices associated with the first user, (iii) application information identifying installed applications of the first set of different types of wearable devices providing the first set of functionality to the first user, and (iv) configuration information identifying customizable device and/or application configurations of the first set of different types of wearable devices; and receiving, from the wearable device set application and configuration recommendation engine, recommended application information and configuration information, wherein the recommended configuration is based on crowd-sourced data of other mobile devices having a substantially identical set of different types of wearable devices and substantially identical identified first type of user.
A hopper wagon body for a hopper wagon, the hopper wagon body having first and second sidewalls (31,32) and first and second end walls (33,34) the walls (31, 32, 33, 34) defining an inlet to the hopper wagon body, the inlet having a general rectangular shape with a first side edge, a second side edge, a first end edge and a second end edge, and a covering system for covering the inlet, the covering system comprising: a cover for closing the inlet when it is arranged in a closed position and for opening the inlet when it is arranged in an open position, a hinge for mounting the cover on the hopper wagon, the hinge being arranged on one or more outer portions of the hopper wagon body such that the cover is hinged to an exterior of the hopper wagon body adjacent the inlet, and the cover is rotatable in a substantially vertical plane, about a horizontal axis between the closed position and the open position, characterised in that a cant rail extends externally along the first side wall, adjacent and parallel to the first side edge, the hinge is configured to mount the cover on the hopper wagon body such that an outer edge of the cover (11aOUT) is hinged to the cant rail, alongside the first side edge of the inlet, the hinge mounts the cover in spaced relation above the inlet such that there is a gap space between the cover and the inlet when the cover is arranged in at least the closed position, and the gap space is between the outer edge of the cover (11aOUT) and an adjacent side edge of the inlet, the gap space acts as an airflow aperture, and wherein the cover is configured to overhang the gap space so as to restrict the ingress of water. a cover for closing the inlet when it is arranged in a closed position and for opening the inlet when it is arranged in an open position, a hinge for mounting the cover on the hopper wagon, the hinge being arranged on one or more outer portions of the hopper wagon body such that the cover is hinged to an exterior of the hopper wagon body adjacent the inlet, and the cover is rotatable in a substantially vertical plane, about a horizontal axis between the closed position and the open position, characterised in that a cant rail extends externally along the first side wall, adjacent and parallel to the first side edge, the hinge is configured to mount the cover on the hopper wagon body such that an outer edge of the cover (11aOUT) is hinged to the cant rail, alongside the first side edge of the inlet, the hinge mounts the cover in spaced relation above the inlet such that there is a gap space between the cover and the inlet when the cover is arranged in at least the closed position, and the gap space is between the outer edge of the cover (11aOUT) and an adjacent side edge of the inlet, the gap space acts as an airflow aperture, and wherein the cover is configured to overhang the gap space so as to restrict the ingress of water.
Motor vehicle latch comprising a locking mechanism having a catch and at least one pawl, wherein the catch can be ratcheted in at least one ratcheting position by means of the pawl and a separate ratcheting element arranged in the engagement region between the catch and the pawl, wherein the ratcheting element is pivotably accommodated in a bearing point of the pawl, wherein the ratcheting element is designed as an opening lever, characterized in that the bearing point is designed as a slot, wherein the opening lever has at least one radius contour (20, 21) so that the opening lever can be rolled on the catch and/or the pawl.
A method for reconfiguring a spectrum resource of a radio system, wherein the method comprises: dividing, by a Reconfigurable Base Station, RBS, subordinate nodes into groups according to attributes of the subordinate nodes, sending a reconfiguration command to a designated group of subordinate nodes; executing, by the RBS and the subordinate nodes, reconfiguration of spectrum resources according to the reconfiguration command; wherein the step of dividing, by the RBS, subordinate nodes into groups according to attributes of the subordinate nodes comprises: applying the same reconfiguration strategy to subordinate nodes in the same group, and the same reconfiguration command accordingly; configuring, by the RBS, the same identifier for the subordinate nodes in the same group; finding, by the RBS, all subordinate nodes in the group according to the identifier; wherein the step of sending a reconfiguration command to a designated group of subordinate node comprises: sending, by the RBS, the reconfiguration command to subordinate nodes in the designated group by means of group transmission, i.e. a point-to-multipoint reconfiguration command sending method is applied to the subordinate nodes in the designated group. dividing, by a Reconfigurable Base Station, RBS, subordinate nodes into groups according to attributes of the subordinate nodes, sending a reconfiguration command to a designated group of subordinate nodes; executing, by the RBS and the subordinate nodes, reconfiguration of spectrum resources according to the reconfiguration command; wherein the step of dividing, by the RBS, subordinate nodes into groups according to attributes of the subordinate nodes comprises: applying the same reconfiguration strategy to subordinate nodes in the same group, and the same reconfiguration command accordingly; configuring, by the RBS, the same identifier for the subordinate nodes in the same group; finding, by the RBS, all subordinate nodes in the group according to the identifier; wherein the step of sending a reconfiguration command to a designated group of subordinate node comprises: sending, by the RBS, the reconfiguration command to subordinate nodes in the designated group by means of group transmission, i.e. a point-to-multipoint reconfiguration command sending method is applied to the subordinate nodes in the designated group.