mhurhangee/ep-ind-claims huggingface dataset:
A temperature sensor belt (32, 34) comprising: - a plurality of temperature sensors (36, 44) disposed on the sensor belt (32, 34), wherein the plurality of temperature sensors (36, 44) is configured to provide an indication representative of a temperature of a workpiece; - a plurality of housings (72, 76) into each of which one temperature sensor of the plurality of temperature sensors (36, 44) is configured to be inserted, wherein each housing of the plurality of housings comprises an insulative material surrounding the plurality of temperature sensors (36, 44) and being configured to thermally insulate the sides of the plurality of temperature sensors (36, 44) that are not arranged to contact the workpiece, and - a support material configured to be disposed over the plurality of temperature sensors (36, 44), when the plurality of temperature sensors (36, 44) are inserted into the plurality of housings (72, 76), wherein the support material is configured to support the plurality of temperature sensors (36, 44), wherein the sensor belt (32, 34) comprises a strap of the support material, wherein each of the plurality of temperature sensors (36, 44) is configured to provide the indication representative of the temperature of the workpiece while a welding operation, cutting operation, grinding operation, or induction heating operation is performed on the workpiece, characterized in that the plurality of sensor housings (72, 76) is configured to be threaded onto the strap to mount the plurality of sensor housings (72, 76) repositionably and removably onto the strap, wherein each housing of the plurality of sensor housings (72, 76) includes openings that enable the strap to be threaded therethrough, wherein the temperature sensor belt (32, 34) is configured to be connected together serially with at least one additional temperature sensor belt (32, 34). - a plurality of temperature sensors (36, 44) disposed on the sensor belt (32, 34), wherein the plurality of temperature sensors (36, 44) is configured to provide an indication representative of a temperature of a workpiece; - a plurality of housings (72, 76) into each of which one temperature sensor of the plurality of temperature sensors (36, 44) is configured to be inserted, wherein each housing of the plurality of housings comprises an insulative material surrounding the plurality of temperature sensors (36, 44) and being configured to thermally insulate the sides of the plurality of temperature sensors (36, 44) that are not arranged to contact the workpiece, and - a support material configured to be disposed over the plurality of temperature sensors (36, 44), when the plurality of temperature sensors (36, 44) are inserted into the plurality of housings (72, 76), wherein the support material is configured to support the plurality of temperature sensors (36, 44),
A drilling template for drilling an implant for a dental implant, having a passage opening and at least one breakthrough, the drilling template being provided or being able to be placed to rest on a jaw, palate and/or one or more teeth and being at least partially adapted to the geometry of the jaw, palate and/or one or more teeth, the passage opening being provided for guiding a drill, in particular a dental implant drill, and/or for inserting a guide sleeve for a drill, and the breakthrough being provided for conducting a fluid, the drilling template comprising a fluid-carrying element (4, 8), the fluid-carrying element (4, 8) being provided for suctioning off a liquid and/or solid drilling residue, characterized in that a reinforcement region is provided around the passage opening, wherein a cavity is formed below the reinforcement region and is surrounded by an outer wall of the drilling template directed outwards towards the cheek, vestibularly in the tooth region, and an inner wall directed orally into the interior of the mouth, wherein the inner and outer walls (1a, 1b) are designed to rest on the gingiva and seal the cavity from the pharynx, wherein the cavity comprises a fluidically active connection to the breakthrough and the passage opening, wherein the cavity provides a collection space for collecting drilling residues, wherein the drilling template is designed for additional adhesion to the jaw and/or palate for generating a permanently applied negative pressure between the drilling template and the jaw or palate by suction. the drilling template being provided or being able to be placed to rest on a jaw, palate and/or one or more teeth and being at least partially adapted to the geometry of the jaw, palate and/or one or more teeth, the passage opening being provided for guiding a drill, in particular a dental implant drill, and/or for inserting a guide sleeve for a drill, and the breakthrough being provided for conducting a fluid, the drilling template comprising a fluid-carrying element (4, 8), the fluid-carrying element (4, 8) being provided for suctioning off a liquid and/or solid drilling residue, characterized in that a reinforcement region is provided around the passage opening, wherein a cavity is formed below the reinforcement region and is surrounded by an outer wall of the drilling template directed outwards towards the cheek, vestibularly in the tooth region, and an inner wall directed orally into the interior of the mouth, wherein the inner and outer walls (1a, 1b) are designed to rest on the gingiva and seal the cavity from the pharynx, wherein the cavity comprises a fluidically active connection to the breakthrough and the passage opening, wherein the cavity provides a collection space for collecting drilling residues, wherein the drilling template is designed for additional adhesion to the jaw and/or palate for generating a permanently applied negative pressure between the drilling template and the jaw or palate by suction.
Additive manufacturing apparatus for building objects by layerwise consolidation of material, the apparatus comprising a build chamber containing a working area, a high energy beam for consolidating material deposited in the working area in layers and a flow device for generating a gas flow across at least a part of the working area from a gas inlet to a gas outlet, characterized in that the gas inlet and gas outlet arranged to be movable within the build chamber.
An R-Fe-B base sintered magnet having a composition consisting essentially of 12 to 17 at% of R which is one or more elements selected from rare earth elements inclusive of yttrium and essentially contains Nd, 0.1 to 3 at% of M 1 which is at least one element selected from among Si, Al, Mn, Ni, Cu, Zn, Ga, Ge, Pd, Ag, Cd, In, Sn, Sb, Pt, Au, Hg, Pb, and Bi, 0.05 to 0.5 at% of M 2 which is at least one element selected from among Ti, V, Cr, Zr, Nb, Mo, Hf, Ta, and W, 4.8+2×m to 5.9+2×m at% of B wherein m is at% of element M 2, up to 10 at% of Co, up to 0.5 at% of C, up to 1.5 at% of O, up to 0.5 at% of N, and the balance of Fe, and comprising a main phase containing an intermetallic compound R 2 (Fe,(Co)) 14 B and a grain boundary phase, wherein the main phase contains an HR rich phase of (R',HR) 2 (Fe,(Co)) 14 B at its surface portion, wherein R' is one or more elements selected from rare earth elements inclusive of yttrium and exclusive of Dy, Tb and Ho, and essentially contains Nd, and HR is at least one element selected from Dy, Tb and Ho, the HR rich phase having a higher HR content than the HR content of the main phase at its center, characterized in that the grain boundary phase includes an intergranular grain boundary which includes narrow portions each having an intergranular width of up to 10 nm and broad portions each of which is flanked by the narrow portions and structured to expand in the intergranular width direction beyond the grain boundary width of the narrow portion, the broad portion has an intergranular width of at least 30 nm, the broad portion has an atomic ratio Fe/R of Fe to R of 0.01 to 2.5, and wherein as viewed in a cross section of the magnet, a proportion of the total area of the broad portions relative to the overall area of the magnet is at least 0.1%. the main phase contains an HR rich phase of (R',HR) 2 (Fe,(Co)) 14 B at its surface portion, wherein R' is one or more elements selected from rare earth elements inclusive of yttrium and exclusive of Dy, Tb and Ho, and essentially contains Nd, and HR is at least one element selected from Dy, Tb and Ho, the HR rich phase having a higher HR content than the HR content of the main phase at its center, characterized in that the grain boundary phase includes an intergranular grain boundary which includes narrow portions each having an intergranular width of up to 10 nm and broad portions each of which is flanked by the narrow portions and structured to expand in the intergranular width direction beyond the grain boundary width of the narrow portion, the broad portion has an intergranular width of at least 30 nm, the broad portion has an atomic ratio Fe/R of Fe to R of 0.01 to 2.5, and wherein as viewed in a cross section of the magnet, a proportion of the total area of the broad portions relative to the overall area of the magnet is at least 0.1%.
A method for displaying, in a virtualized desktop executing on a remote computing device, data identifying one or more characteristics of a client drive of a client computing device, without explicitly mapping the client drive onto the remote computing device, the method comprising: a) establishing, by a first client agent executing on the client computing device, a user session with the remote computing device; b) transmitting, by the first client agent, data identifying one or more characteristics of the client drive to a second client agent executing on the remote computing device; c) generating, by the second client agent, a shell link using the data identifying one or more characteristics of the client drive received from the first client agent in the context of the user session, wherein the shell link comprises a data object that contains information used to access the client drive; (d) registering, by the second client agent, an identifier for the shell link in a registry provided by an operating system executing on the remote computing device; (e) intercepting, by the second client agent, an enumeration request by the operating system for display of a characteristic of the client drive; and f) displaying, by the second client agent, the data identifying one or more characteristics of the client drive in the virtualized desktop executing on the remote computing device by reading the shell link from the registry. a) establishing, by a first client agent executing on the client computing device, a user session with the remote computing device; b) transmitting, by the first client agent, data identifying one or more characteristics of the client drive to a second client agent executing on the remote computing device; c) generating, by the second client agent, a shell link using the data identifying one or more characteristics of the client drive received from the first client agent in the context of the user session, wherein the shell link comprises a data object that contains information used to access the client drive; (d) registering, by the second client agent, an identifier for the shell link in a registry provided by an operating system executing on the remote computing device; (e) intercepting, by the second client agent, an enumeration request by the operating system for display of a characteristic of the client drive; and f) displaying, by the second client agent, the data identifying one or more characteristics of the client drive in the virtualized desktop executing on the remote computing device by reading the shell link from the registry.
A communication apparatus comprising: an antenna (110 310) configured to receive a wireless signal; an oscillator (120, 320), configured to be driven by a driving current, and configured to generate an oscillating signal based on the wireless signal; a measurer (130, 330) configured to measure an oscillation degree of the oscillating signal; and an accumulator (150, 350) configured to accumulate a difference between a target value and a measurement value of the oscillation degree, wherein the apparatus being configured to determine a value of the wireless signal based on a cumulative signal corresponding to the accumulated difference. an antenna (110 310) configured to receive a wireless signal; an oscillator (120, 320), configured to be driven by a driving current, and configured to generate an oscillating signal based on the wireless signal; a measurer (130, 330) configured to measure an oscillation degree of the oscillating signal; and an accumulator (150, 350) configured to accumulate a difference between a target value and a measurement value of the oscillation degree, wherein the apparatus being configured to determine a value of the wireless signal based on a cumulative signal corresponding to the accumulated difference.
An arrangement for controlling a computer apparatus associated with a graphical display, the display presenting a representation of a plurality of GUI-components that are configured to be manipulated based on user-generated commands, the arrangement comprising a display and an event engine configured to receive an eye-tracking data signal describing a user's point of regard on the display, and at least based on the eye-tracking data signal, configured to produce a set of noncursor controlling event output signals influencing the GUI-components, each of the noncursor controlling event output signals describing a different aspect of the user's ocular activity in respect of the display, wherein the event engine is configured to: receive a respective control signal request (R a,.... R n) from each of the GUI-components, each respective control signal request (R a,.... R n) defining a sub-set of the set of non-cursor controlling event output signals which is required by a corresponding one of the GUI-components to operate as intended, produce the set of non-cursor controlling event output signals (D-Hi i) which is actually requested by the respective control signal request from each of the GUI-components, and deliver the set of non-cursor controlling event output signals to the GUI-components in accordance with each respective control signal request (R a,.... R n). receive a respective control signal request (R a,.... R n) from each of the GUI-components, each respective control signal request (R a,.... R n) defining a sub-set of the set of non-cursor controlling event output signals which is required by a corresponding one of the GUI-components to operate as intended, produce the set of non-cursor controlling event output signals (D-Hi i) which is actually requested by the respective control signal request from each of the GUI-components, and deliver the set of non-cursor controlling event output signals to the GUI-components in accordance with each respective control signal request (R a,.... R n).
A lubricant composition for lubricating a surface, the lubricant composition containing a base oil of lubricating viscosity and an amount of at least one hydrocarbon soluble titanium compound effective to provide a reduction in the coefficient of friction of the lubricant composition greater than a reduction in the coefficient of friction of the lubricant composition devoid of the hydrocarbon soluble titanium compound, wherein the lubricant composition contains 0.7 wt% or less sulfur and 0.12 wt.% or less phosphorus, and wherein the hydrocarbon soluble titanium compound is devoid of sulphur and phosphorus atoms and is a reaction product of titanium alkoxide and a C 6 to C 25 carboxylic acid, wherein the coefficient of friction is determined at 130 °C in a high frequency reciprocating test rig, wherein the hydrocarbon soluble titanium compound provides from 10 to 1500 parts per million (ppm) titanium to the finished lubricant composition and wherein the lubricant composition further comprises 0.001 to 20 wt. % of a friction modifier mixture of an organomolybdenum friction modifier and a glycerol ester friction modifier.
A charger, comprising a first Type-A port, a charging module, and a first power delivery, PD, transceiving module; wherein the first Type-A port comprises a data pin, a first terminal of the charging module is connected to the data pin, a second terminal of the charging module is connected to a first terminal of the first PD transceiving module, and a second terminal of the first PD transceiving module is connected to the data pin; in a case that the charger is connected to a data cable, if the data cable is a first data cable, the first PD transceiving module is in an operating state, and the charging module performs non-PD charging on a to-be-charged device based on a differential mode signal transmitted through the data pin, or the charging module performs PD charging on the to-be-charged device based on a common mode signal processed by the first PD transceiving module and transmitted through the data pin; in a case that the charger is connected to the data cable, if the data cable is a second data cable, the first PD transceiving module is in a non-operating state, and the charging module performs non-PD charging on the to-be-charged device based on a differential mode signal transmitted through the data pin; wherein in a case that the first PD transceiving module receives a first signal transmitted through the data pin, the data cable is the first data cable; and in a case that the first PD transceiving module does not receive the first signal transmitted through the data pin, the data cable is the second data cable, and the first data cable generates the first signal when connected to the to-be-charged device. the first Type-A port comprises a data pin, a first terminal of the charging module is connected to the data pin, a second terminal of the charging module is connected to a first terminal of the first PD transceiving module, and a second terminal of the first PD transceiving module is connected to the data pin; in a case that the charger is connected to a data cable, if the data cable is a first data cable, the first PD transceiving module is in an operating state, and the charging module performs non-PD charging on a to-be-charged device based on a differential mode signal transmitted through the data pin, or the charging module performs PD charging on the to-be-charged device based on a common mode signal processed by the first PD transceiving module and transmitted through the data pin; in a case that the charger is connected to the data cable, if the data cable is a second data cable, the first PD transceiving module is in a non-operating state, and the charging module performs non-PD charging on the to-be-charged device based on a differential mode signal transmitted through the data pin; wherein in a case that the first PD transceiving module receives a first signal transmitted through the data pin, the data cable is the first data cable; and in a case that the first PD transceiving module does not receive the first signal transmitted through the data pin, the data cable is the second data cable, and the first data cable generates the first signal when connected to the to-be-charged device.
A nonaqueous electrolyte comprising an organic solvent and a lithium salt dissolved in the solvent and containing at least one compound represented by general formula: wherein n represents an integer of 1 to 6; with n being 1 or 3 to 6, R 1 represents a group having 1 to 20 carbon atoms and at least one of an oxygen atom and a sulfur atom, or with n being 2, R 1 represents -O-, -S-, or a group having 1 to 20 carbon atoms and at least one of an oxygen atom and a sulfur atom; R 2, R 3, and R 4 each independently represent a saturated aliphatic hydrocarbon group having 1 to 20 carbon atoms or an aromatic hydrocarbon group having 6 to 20 carbon atoms; Z 1 represents a direct bond or a divalent aliphatic hydrocarbon group having 1 to 20 carbon atoms; and the group having 1 to 20 carbon atoms and at least one of an oxygen atom and a sulfur atom as represented by R 1 is -O-Z 2 -O-, -S-Z 2' -S-, a furan ring, a thiophene ring, or a bicyclic, tricyclic, or tetracyclic fused heterocyclic ring containing at least one of a furan ring and a thiophene ring, wherein Z 2 represents a divalent aliphatic hydrocarbon group having 1 to 5 carbon atoms, and Z 2' represents a direct bond or a divalent aliphatic hydrocarbon group having 1 to 5 carbon atoms. wherein n represents an integer of 1 to 6; with n being 1 or 3 to 6, R 1 represents a group having 1 to 20 carbon atoms and at least one of an oxygen atom and a sulfur atom, or with n being 2, R 1 represents -O-, -S-, or a group having 1 to 20 carbon atoms and at least one of an oxygen atom and a sulfur atom; R 2, R 3, and R 4 each independently represent a saturated aliphatic hydrocarbon group having 1 to 20 carbon atoms or an aromatic hydrocarbon group having 6 to 20 carbon atoms; Z 1 represents a direct bond or a divalent aliphatic hydrocarbon group having 1 to 20 carbon atoms; and the group having 1 to 20 carbon atoms and at least one of an oxygen atom and a sulfur atom as represented by R 1 is -O-Z 2 -O-, -S-Z 2' -S-, a furan ring, a thiophene ring, or a bicyclic, tricyclic, or tetracyclic fused heterocyclic ring containing at least one of a furan ring and a thiophene ring, wherein Z 2 represents a divalent aliphatic hydrocarbon group having 1 to 5 carbon atoms, and Z 2' represents a direct bond or a divalent aliphatic hydrocarbon group having 1 to 5 carbon atoms.
An interlock for use in a process for production of a polymer in a reactor, which interlock is an instrumented system which is designed to act in response to a condition within the process which indicates a potentially dangerous situation or consequence, and to thereby prevent or mitigate said situation or consequence, and which process comprises: a. polymerising a monomer and optionally a comonomer in the reactor to produce polymer, optionally in the presence of an inert hydrocarbon, and b. withdrawing produced polymer from the reactor, said interlock being based on the temperature in the reactor, and comprising: 1. measuring the temperature in the reactor or a temperature representative of the temperature in the reactor, and 2. comparing said measured temperature to a threshold temperature, which threshold temperature is below the normal range of temperature in the reactor expected for the production of the relevant polymer, said interlock being characterised in that withdrawal is allowed if the measured temperature is greater than the threshold temperature but is prevented if the measured temperature is lower than the threshold temperature. a. polymerising a monomer and optionally a comonomer in the reactor to produce polymer, optionally in the presence of an inert hydrocarbon, and b. withdrawing produced polymer from the reactor, 1. measuring the temperature in the reactor or a temperature representative of the temperature in the reactor, and 2. comparing said measured temperature to a threshold temperature, which threshold temperature is below the normal range of temperature in the reactor expected for the production of the relevant polymer,