mhurhangee/patent-ind-claim-en huggingface dataset:
A portable articulated arm coordinate measuring machine (AACMM) for measuring the coordinates of an object in space, comprising: a base ; a manually positionable arm portion having an opposed first end and second end, the arm portion being rotationally coupled to the base , the arm portion including a plurality of connected arm segments , each arm segment including at least one position transducer for producing a position signal; a probe end coupled to the first end, the probe end having a first accessory interface and a second accessory interface , the first accessory interface being positioned on an end of the probe end, the second accessory interface being positioned on a side of the probe end, the first accessory interface having a first latch , the second accessory interface having a second latch ; a first accessory coupled to one of the first accessory interface or the second accessory interface , wherein the first accessory isconfigured to be removably coupled to both the first accessory interface and the second accessory interface ; a first electronic circuit that receives the position signal from the at least one position transducer of each arm segment and provides data corresponding to a position of the first accessory ; and wherein the first accessory interface and the second accessory interface are substantially identical. a base ; a manually positionable arm portion having an opposed first end and second end, the arm portion being rotationally coupled to the base , the arm portion including a plurality of connected arm segments , each arm segment including at least one position transducer for producing a position signal; a probe end coupled to the first end, the probe end having a first accessory interface and a second accessory interface , the first accessory interface being positioned on an end of the probe end, the second accessory interface being positioned on a side of the probe end, the first accessory interface having a first latch , the second accessory interface having a second latch ; a first accessory coupled to one of the first accessory interface or the second accessory interface , wherein the first accessory isconfigured to be removably coupled to both the first accessory interface and the second accessory interface ; a first electronic circuit that receives the position signal from the at least one position transducer of each arm segment and provides data corresponding to a position of the first accessory ; and
A liquid UV/vis radiation curable composition for additive fabrication comprising: a photoinitiating package comprising an onium salt cationic photoinitiator; a reductant comprising an effective amount of a Norrish Type I photoinitiator dissolved in a polyfunctional vinyl ether compound that is a liquid at 25 °C; and optionally, a photosensitizer; a cationically polymerizable constituent; a free-radically polymerizable component; and optionally, one or more additives; wherein the Norrish Type I photoinitiator is configured to enter a triplet state upon excitation by exposure to actinic radiation, wherein said excited triplet state possesses an ionization potential of from 2.5 eV to 4.15 eV, wherein the ionization potential is calculated in accordance with molecular modeling under B3LYP/6-31G(d) in combination with Koopman's Theorem (IP = -ε HOMO ). a photoinitiating package comprising an onium salt cationic photoinitiator; a reductant comprising an effective amount of a Norrish Type I photoinitiator dissolved in a polyfunctional vinyl ether compound that is a liquid at 25 °C; and optionally, a photosensitizer; an onium salt cationic photoinitiator; a reductant comprising an effective amount of a Norrish Type I photoinitiator dissolved in a polyfunctional vinyl ether compound that is a liquid at 25 °C; and optionally, a photosensitizer; an effective amount of a Norrish Type I photoinitiator dissolved in a polyfunctional vinyl ether compound that is a liquid at 25 °C; and optionally, a photosensitizer; a cationically polymerizable constituent; a free-radically polymerizable component; and optionally, one or more additives; wherein the Norrish Type I photoinitiator is configured to enter a triplet state upon excitation by exposure to actinic radiation, wherein said excited triplet state possesses an ionization potential of from 2.5 eV to 4.15 eV, wherein the ionization potential is calculated in accordance with molecular modeling under B3LYP/6-31G(d) in combination with Koopman's Theorem (IP = -ε HOMO ).
Process of shutting down a blast furnace plant comprising a blast furnace and a gas cleaning section for cleaning gas from the blast furnace, wherein clean gas is released via a clean gas vent line downstream of the gas cleaning section and wherein hot blast pressure and/or flow are reduced to a set value, and subsequently a flow is generated from tuyeres of the blast furnace to the clean gas vent line .
A valve assembly comprising: a poppet guide ; a poppet guide pivot system engaging the poppet guide and having an axial centerline, the poppet guide pivot system enabling pivoting of the poppet guide relative to the axial centerline; and a poppet receiving an end of the poppet guide therein; wherein the poppet guide pivot system comprises: an inner ring having a first surface engaging the poppet guide and a second, convex surface opposite the first surface; an outer ring having a concave surface engaging the convex surface of the inner ring and having an opposite surface; characterised by a bolt disposed through the inner ring and the outer ring, the bolt comprising a head portion; and a spring disposed between the bolt head portion and the inner ring, the spring biasing the inner ring into engagement with the outer ring; wherein the inner ring is slideable relative to the outer ring along the mated curved surfaces, and the poppet guide is pivotable relative to the axial centerline with movement of the inner ring; wherein the poppet is pivotable with the poppet guide; and wherein the convex surface and the concave surface are intersected by the axial centerline of the pivot system. a poppet guide ; a poppet guide pivot system engaging the poppet guide and having an axial centerline, the poppet guide pivot system enabling pivoting of the poppet guide relative to the axial centerline; and a poppet receiving an end of the poppet guide therein; wherein the poppet guide pivot system comprises: an inner ring having a first surface engaging the poppet guide and a second, convex surface opposite the first surface; an outer ring having a concave surface engaging the convex surface of the inner ring and having an opposite surface; characterised by a bolt disposed through the inner ring and the outer ring, the bolt comprising a head portion; and a spring disposed between the bolt head portion and the inner ring, the spring biasing the inner ring into engagement with the outer ring; an inner ring having a first surface engaging the poppet guide and a second, convex surface opposite the first surface; an outer ring having a concave surface engaging the convex surface of the inner ring and having an opposite surface; characterised by a bolt disposed through the inner ring and the outer ring, the bolt comprising a head portion; and a spring disposed between the bolt head portion and the inner ring, the spring biasing the inner ring into engagement with the outer ring; wherein the inner ring is slideable relative to the outer ring along the mated curved surfaces, and the poppet guide is pivotable relative to the axial centerline with movement of the inner ring; wherein the poppet is pivotable with the poppet guide; and wherein the convex surface and the concave surface are intersected by the axial centerline of the pivot system.
Brake control unit comprising: a plate-shaped first carrier having: a first base side (B); a second base side (C) opposite to the first base side (B); a first lateral side (A) connecting between the first and second base sides (B, C); a second lateral side (D) opposite to the first lateral side (A) and connecting between the first and second base sides (B, C), characterized by a plate-shaped second carrier having: a third base side (E); a fourth base side (F) opposite to the third base side (E); wherein the second carrier is mounted to the first carrier such that the first base side (B) of the first carrier and the third base side (E) of the second carrier span an angle of approximately 90°, wherein the brake control unit further comprises: an electrical connector provided on the first base side (B) of the first carrier , a pneumatic connector provided on the first base side (B) of the first carrier , a device to be operated provided on the fourth base side (F) of the second carrier , a fixed device provided on the second base side (C) of the first carrier , and an air tank provided on the second base side (C) or the second lateral side (D) of the first carrier . a plate-shaped first carrier having: a first base side (B); a second base side (C) opposite to the first base side (B); a first lateral side (A) connecting between the first and second base sides (B, C); a second lateral side (D) opposite to the first lateral side (A) and connecting between the first and second base sides (B, C), characterized by a first base side (B); a second base side (C) opposite to the first base side (B); a first lateral side (A) connecting between the first and second base sides (B, C); a second lateral side (D) opposite to the first lateral side (A) and connecting between the first and second base sides (B, C), a plate-shaped second carrier having: a third base side (E); a fourth base side (F) opposite to the third base side (E); wherein a third base side (E); a fourth base side (F) opposite to the third base side (E); wherein the second carrier is mounted to the first carrier such that the first base side (B) of the first carrier and the third base side (E) of the second carrier span an angle of approximately 90°, an electrical connector provided on the first base side (B) of the first carrier , a pneumatic connector provided on the first base side (B) of the first carrier , a device to be operated provided on the fourth base side (F) of the second carrier , a fixed device provided on the second base side (C) of the first carrier , and an air tank provided on the second base side (C) or the second lateral side (D) of the first carrier .
A computer-implemented method of monitoring the performance of a participant engaged in a fitness activity including a predetermined route to be traversed by the participant, wherein the method comprises: receiving a GPS signal during the fitness activity at a portable fitness device used by the participant; determining participant performance data based on the received GPS signal; receiving , from a position beacon system including a plurality of time-stamped location signal transmitters disposed at predetermined distances along the route , a signal that includes time-stamped location information indicating the location of the position beacon system and the time at which the signal was transmitted; and modifying the participant performance data based on the signal received from the position beacon system . receiving a GPS signal during the fitness activity at a portable fitness device used by the participant; determining participant performance data based on the received GPS signal; receiving , from a position beacon system including a plurality of time-stamped location signal transmitters disposed at predetermined distances along the route , a signal that includes time-stamped location information indicating the location of the position beacon system and the time at which the signal was transmitted; and modifying the participant performance data based on the signal received from the position beacon system .
Method for determining the concentration or activity of at least one analyte in a body fluid sample on the basis of at least one transmission value for a light signal that is pulsed at a frequency through a specimen in an automatic analysis appliance, wherein the transmission value is ascertained using a method having the following steps: a) producing a voltage curve associated with the intensity of the light signal transmitted through the specimen , b) ascertaining a plurality of sample values for the voltage curve , c) ascertaining a first voltage value associated with a light pulse from a number of sample values and ascertaining a second voltage value associated with a dark time between two light pulses from a number of sample values , wherein the sample values for ascertaining a second voltage value associated with a dark time between two light pulses are offset from the sample values for ascertaining a first voltage value associated with a light pulse by an integer multiple of a half-period corresponding to the frequency of the pulsed light signal, and d) subtracting the second voltage value from the first voltage value, wherein the difference obtained in step d) is proportional to the transmission value. a) producing a voltage curve associated with the intensity of the light signal transmitted through the specimen , b) ascertaining a plurality of sample values for the voltage curve , c) ascertaining a first voltage value associated with a light pulse from a number of sample values and ascertaining a second voltage value associated with a dark time between two light pulses from a number of sample values , wherein the sample values for ascertaining a second voltage value associated with a dark time between two light pulses are offset from the sample values for ascertaining a first voltage value associated with a light pulse by an integer multiple of a half-period corresponding to the frequency of the pulsed light signal, and d) subtracting the second voltage value from the first voltage value,
Tank tube bracket for a tank , in particular a diesel or reactive-fluid tank, the bracket comprising a receptacle for receiving a tank tube , the receptacle extending along an axis , and a passage for passing fluid through the bracket wherein the passage is directed towards the axis at a distal end of the passage , characterized in that a tank tube is received in the receptacle , the tank tube extending in front of the distal end of the passage .
A fire suppressant mixture comprising: an organic fire suppressant selected from the group consisting of FK 5-1-12 and 2-BTP, wherein FK-5-1-12 is dodecafluoro-2-methylpentane-3-one and 2-BTP is 2-bromo-3,3,3-trifluoropropene; carbon dioxide; and, an inorganic pressurizing gas; wherein the organic fire suppressant and the carbon dioxide are combined such that a boiling point of the fire suppressant mixture is lower than a boiling point of the organic fire suppressant. an organic fire suppressant selected from the group consisting of FK 5-1-12 and 2-BTP, wherein FK-5-1-12 is dodecafluoro-2-methylpentane-3-one and 2-BTP is 2-bromo-3,3,3-trifluoropropene; carbon dioxide; and, an inorganic pressurizing gas; wherein the organic fire suppressant and the carbon dioxide are combined such that a boiling point of the fire suppressant mixture is lower than a boiling point of the organic fire suppressant.
An assembly comprising a machine tool and a workpiece holder associated to a workpiece , the workpiece holder comprising at least one surface facing radially outwards which is configured to bear against a clamping element arranged in the radial direction between the workpiece halder and a chuck , wherein an inner surface of the chuck and the clamping element are at least sectionally of a wedge-shaped cross-section, characterized in that the surface is a substantially planar surface, and that the multi-axis workpiece arm of the machine tool comprises the chuck , which is mounted on or in the multi-axis workpiece arm , especially is mounted rotatably about an rotational axis (D), by which chuck the workpiece holder of the workpiece is clampable, and in that the inner surface of the chuck and the clamping element are matched to each other such that when displacing the clamping element in relation to the chuck parallel to the rotational axis for clamping and releasing the workpiece holder from the chuck they act on each other, wherein the clamping element is configured to vary a clamping force (F) applied to the workpiece holder during any displacement in relation to the chuck .
A coupling member for securing first corner fittings of a first container with second corner fittings of a second container at least against horizontal displacement relative to each other, characterized by : a distance sensor , which is configured to detect a distance to the first corner fitting and/or second corner fitting , and a transmitting unit configured to transmit an identification signal for identifying the sensor and a distance signal representative of the detected distance to the first corner fitting and/or second corner fitting . a distance sensor , which is configured to detect a distance to the first corner fitting and/or second corner fitting , and a transmitting unit configured to transmit an identification signal for identifying the sensor and a distance signal representative of the detected distance to the first corner fitting and/or second corner fitting .
A computer-implemented method of controlling an excavation task by an autonomous excavation vehicle comprising a scanning device and an inertial navigation system (INS), where a desired result of the excavation task being described by a target map, the method comprising: a) operating the scanning device for repeatedly scanning an area surrounding the autonomous excavation vehicle and repeatedly updating based on data obtained by the scanning, a map representing at least a part of the area, the map being relative to a location of the vehicle and comprises cells, each is classified to a certain class and is characterized by a size equal or larger than an accumulated drift value of the INS over a predefined distance; receiving from the INS, INS data indicative of a current location and orientation of the vehicle relative to a previous location and orientation; and updating a location of the vehicle relative to the cells in the map based on the INS data; b) executing an excavation sequence, comprising: moving a digging implement equipped with a sensor for executing an excavation operation; receiving data indicative of current terrain topography from the sensor; updating the map according to the data indicative of current terrain topography; calculating an excavation operation according to a difference between the map and the target map; and executing the excavation operation. a) operating the scanning device for repeatedly scanning an area surrounding the autonomous excavation vehicle and repeatedly updating based on data obtained by the scanning, a map representing at least a part of the area, the map being relative to a location of the vehicle and comprises cells, each is classified to a certain class and is characterized by a size equal or larger than an accumulated drift value of the INS over a predefined distance; receiving from the INS, INS data indicative of a current location and orientation of the vehicle relative to a previous location and orientation; and updating a location of the vehicle relative to the cells in the map based on the INS data; receiving from the INS, INS data indicative of a current location and orientation of the vehicle relative to a previous location and orientation; and updating a location of the vehicle relative to the cells in the map based on the INS data; b) executing an excavation sequence, comprising: moving a digging implement equipped with a sensor for executing an excavation operation; receiving data indicative of current terrain topography from the sensor; updating the map according to the data indicative of current terrain topography; calculating an excavation operation according to a difference between the map and the target map; and executing the excavation operation. moving a digging implement equipped with a sensor for executing an excavation operation; receiving data indicative of current terrain topography from the sensor; updating the map according to the data indicative of current terrain topography; calculating an excavation operation according to a difference between the map and the target map; and executing the excavation operation.
A downhole tool system comprising: a downhole tool string configured to couple to a downhole conveyance that extends in a wellbore from a terranean surface through at least a portion of a subterranean zone , the subterranean zone comprising a geologic formation, the downhole tool string comprising a bottom hole assembly that includes a drill bit configured to form the wellbore; and a heating device coupled with the downhole tool string, the heating device configured to transfer heat to the geologic formation in the wellbore at a specified temperature sufficient to adjust a quality of the geologic formation associated with a fluid absorption capacity of the geologic formation, wherein the heating device is configured to transfer heat to the geologic formation in a first portion of the wellbore during operation of the drill bit in a second portion of the wellbore downhole of the first portion of the wellbore, wherein the heating device is at another depth of the wellbore relative to the drill bit operation, and wherein the quality of the geologic formation associated with the fluid absorption capacity of the geologic formation comprises a cationic exchange capacity of the geologic formation and wherein the specified temperature is sufficient to reduce the cationic exchange capacity of the geologic formation. a downhole tool string configured to couple to a downhole conveyance that extends in a wellbore from a terranean surface through at least a portion of a subterranean zone , the subterranean zone comprising a geologic formation, the downhole tool string comprising a bottom hole assembly that includes a drill bit configured to form the wellbore; and a heating device coupled with the downhole tool string, the heating device configured to transfer heat to the geologic formation in the wellbore at a specified temperature sufficient to adjust a quality of the geologic formation associated with a fluid absorption capacity of the geologic formation, wherein the heating device is configured to transfer heat to the geologic formation in a first portion of the wellbore during operation of the drill bit in a second portion of the wellbore downhole of the first portion of the wellbore, wherein the heating device is at another depth of the wellbore relative to the drill bit operation, and wherein the quality of the geologic formation associated with the fluid absorption capacity of the geologic formation comprises a cationic exchange capacity of the geologic formation and wherein the specified temperature is sufficient to reduce the cationic exchange capacity of the geologic formation.