mhurhangee/patent-ind-claim-en huggingface dataset:
System for real-time detection of deposits or chemical inhibitor close to or on the surface of electrodes or pins facing a fluid flow where any combination of the components oil, water, gas and a chemical inhibitor fluid could be present, and where said electrodes or pins are coupled to a measuring means, said measuring means configured for determining the electrical characteristics of the flow, said characteristics including the real and imaginary parts of the complex impedance or complex permittivity; wherein said measuring means is further configured to simultaneously monitor said parts of the electrical characteristics through measurement of a transient response of the system, the measuring means being adapted to measure said transient response after exciting the sensor electrodes with a current or voltage waveform of a given profile; wherein the system also comprises a signal processing means, said signal processing means configured for comparing said transient response data with predetermined limits related to the electrical characteristics of the said flow stored on a storage medium; and detecting a deviation of said signal parts from said predetermined limits, wherein depending upon said deviation said signal processing means is further configured for continuously or periodically transmitting a signal indicating presence of deposit or chemical inhibitor wherein in case of a hydrocarbon flow the real part of the complex impedance deviates from said predetermined limits and wherein in case of a water continuous flow the imaginary part of the complex impedance deviates from said predetermined limits. comparing said transient response data with predetermined limits related to the electrical characteristics of the said flow stored on a storage medium; and detecting a deviation of said signal parts from said predetermined limits, wherein
A method for preparing an alkyl 5,7-dihalo-1,4-dihydro-4-oxoquinoline-2-carboxylate ester of Formula IV, comprising the sequential steps of: (i) heating a first solution comprising a compound of Formula III dissolved in a reagent comprising 7 to 10 wt% P 2 O 5 in methanesulfonic acid, at a concentration of 0.15 to 0.25 grams of the compound of Formula III per mL of the reagent: at a selected temperature in the range of 65 to 75 °C by pumping the first solution through a heated continuous flow reactor coil at a pumping flow rate sufficient to provide a residence time of 15 to 40 minutes in the heated coil, and collecting an effluent flowing out of the heated coil comprising an alkyl 5,7-dihalo-1,4-dihydro-4-oxoquinoline-2-carboxylate ester of Formula IV: (ii) adding the effluent collected from step (i) to at least 5 volumes of water per volume of the effluent, with stirring, while maintaining a water temperature of 15 °C or less, to form a first precipitate comprising the ester of Formula IV; and (iii) recovering the first precipitate; wherein in Formula III and Formula IV, each X independently is a halogen atom; and each R independently is C 1 to C 4 alkyl. (i) heating a first solution comprising a compound of Formula III dissolved in a reagent comprising 7 to 10 wt% P 2 O 5 in methanesulfonic acid, at a concentration of 0.15 to 0.25 grams of the compound of Formula III per mL of the reagent: at a selected temperature in the range of 65 to 75 °C by pumping the first solution through a heated continuous flow reactor coil at a pumping flow rate sufficient to provide a residence time of 15 to 40 minutes in the heated coil, and collecting an effluent flowing out of the heated coil comprising an alkyl 5,7-dihalo-1,4-dihydro-4-oxoquinoline-2-carboxylate ester of Formula IV: (ii) adding the effluent collected from step (i) to at least 5 volumes of water per volume of the effluent, with stirring, while maintaining a water temperature of 15 °C or less, to form a first precipitate comprising the ester of Formula IV; and (iii) recovering the first precipitate;
Modular electrical plug connector arrangement for a controller in a motor vehicle, wherein the plug connector arrangement has: a module carrier and at least one first plug module and one second plug module , wherein the first plug module and the second plug module are arranged next to one another on the module carrier , wherein both the first plug module and also the second plug module each have a plug housing collar , which plug housing collars protrude away from the module carrier in one direction and are shaped for receiving an electrical plug connector in each case, wherein both the first plug module and also the second plug module each have a plurality of contact elements which are arranged in a contact region within the respective plug housing collar and are shaped for receiving complementary mating contact elements of the respective electrical plug connector, wherein the first plug module and the second plug module are fastened to the module carrier in a fastening region in each case, wherein the fastening region is arranged between the respective plug housing collar and the respective contact region , characterized in that the module carrier has an annularly encircling web which protrudes upwards in the direction of the first plug module , in particular in a state in which the plug modules are not yet fastened to the module carrier, wherein the web is formed from a fusible material, wherein the module carrier is welded to a base of the plug module along the web . a module carrier and at least one first plug module and one second plug module , wherein the first plug module and the second plug module are arranged next to one another on the module carrier , wherein both the first plug module and also the second plug module each have a plug housing collar , which plug housing collars protrude away from the module carrier in one direction and are shaped for receiving an electrical plug connector in each case, wherein both the first plug module and also the second plug module each have a plurality of contact elements which are arranged in a contact region within the respective plug housing collar and are shaped for receiving complementary mating contact elements of the respective electrical plug connector, wherein the first plug module and the second plug module are fastened to the module carrier in a fastening region in each case, wherein the fastening region is arranged between the respective plug housing collar and the respective contact region , characterized in that the module carrier has an annularly encircling web which protrudes upwards in the direction of the first plug module , in particular in a state in which the plug modules are not yet fastened to the module carrier, wherein the web is formed from a fusible material, wherein the module carrier is welded to a base of the plug module along the web .
A system for surgical tracking and control comprising: a robotic arm configured to allow interactive movement and controlled autonomous movement of an end effector ; a cut guide mounted to the end effector of the robotic arm, the cut guide configured to guide a surgical instrument within a plane; a tracking system to determine a position and an orientation of the cut guide relative to a coordinate system; and a control system to: determine whether a zone occupied by the cut guide is free-drive zone or an interaction zone using at least the position of the cut guide; in response to determining the zone is the free-drive zone, permit interactive movement of the end effector and prevent autonomous movement of the end effector; and in response to determining the zone is the interaction zone, permit interactive movement and autonomous movement of the end effector. a robotic arm configured to allow interactive movement and controlled autonomous movement of an end effector ; a cut guide mounted to the end effector of the robotic arm, the cut guide configured to guide a surgical instrument within a plane; a tracking system to determine a position and an orientation of the cut guide relative to a coordinate system; and a control system to: determine whether a zone occupied by the cut guide is free-drive zone or an interaction zone using at least the position of the cut guide; in response to determining the zone is the free-drive zone, permit interactive movement of the end effector and prevent autonomous movement of the end effector; and in response to determining the zone is the interaction zone, permit interactive movement and autonomous movement of the end effector. determine whether a zone occupied by the cut guide is free-drive zone or an interaction zone using at least the position of the cut guide; in response to determining the zone is the free-drive zone, permit interactive movement of the end effector and prevent autonomous movement of the end effector; and in response to determining the zone is the interaction zone, permit interactive movement and autonomous movement of the end effector.
An electrical plug assembly including a rigid housing , wherein the electrical plug assembly comprises: a pair of flexible inserts fixedly disposed in the rigid housing ; a pair of rigid sleeves , each of the pair of rigid sleeves being fixedly disposed in an associated one of the pair of flexible inserts ; a pair of electrically-conductive prongs , each of the pair of electrically-conductive prongs being fixedly disposed in an associated one of the pair of rigid sleeves ; and a pair of flexible electrical conductor assemblies , each of the pair of flexible electrical conductor assemblies being movably attached to an associated one of the pair of electrically-conductive prongs , whereby each of the pair of flexible electrical conductor assemblies includes: an electrically-conductive spring clip assembly frictionally engaging an associated one of the pair of electrically-conductive prongs ; and a flexible, electrically-conductive wire connected to the electrically-conductive spring clip assembly . a pair of flexible inserts fixedly disposed in the rigid housing ; a pair of rigid sleeves , each of the pair of rigid sleeves being fixedly disposed in an associated one of the pair of flexible inserts ; a pair of electrically-conductive prongs , each of the pair of electrically-conductive prongs being fixedly disposed in an associated one of the pair of rigid sleeves ; and a pair of flexible electrical conductor assemblies , each of the pair of flexible electrical conductor assemblies being movably attached to an associated one of the pair of electrically-conductive prongs , whereby each of the pair of flexible electrical conductor assemblies includes: an electrically-conductive spring clip assembly frictionally engaging an associated one of the pair of electrically-conductive prongs ; and a flexible, electrically-conductive wire connected to the electrically-conductive spring clip assembly . an electrically-conductive spring clip assembly frictionally engaging an associated one of the pair of electrically-conductive prongs ; and a flexible, electrically-conductive wire connected to the electrically-conductive spring clip assembly .
A steering wheel skeleton for a vehicle steering wheel comprising a steering wheel axis (A), a hub for fastening the vehicle steering wheel on a steering shaft rotatable about the steering wheel axis (A), and a steering wheel rim extending from a first axial end via a first axial end portion , a rim portion and a second axial end portion to an opposite second axial end , wherein the rim portion is radially spaced apart from the hub and surrounds the hub in circumferential direction , and wherein at least one axial end of the steering wheel rim is tightly connected to the hub , characterized in that the steering wheel rim at least in portions includes a U-shaped cross-section, when viewed in its longitudinal direction.
A human head manipulation apparatus for treating at least one system of a human subject , comprising: a human receiving area facing a visual target ; a robotic arm having a base and a distal end opposite the base ; a head mount configured to be secured to a human subject's head ; wherein the head mount is affixed to the distal end of the robotic arm; wherein the head mount is configured to be actuated by the robotic arm to move the human subject's head in three dimensional space; and characterized in that: the robotic arm includes a kinematic feedback sensor system configured to detect resistance to movement during treatment; and the apparatus is configured to collect data indicative of the position or movement of the human subject's eyes. a human receiving area facing a visual target ; a robotic arm having a base and a distal end opposite the base ; a head mount configured to be secured to a human subject's head ; wherein the head mount is affixed to the distal end of the robotic arm; wherein the head mount is configured to be actuated by the robotic arm to move the human subject's head in three dimensional space; and characterized in that: the robotic arm includes a kinematic feedback sensor system configured to detect resistance to movement during treatment; and the apparatus is configured to collect data indicative of the position or movement of the human subject's eyes. the robotic arm includes a kinematic feedback sensor system configured to detect resistance to movement during treatment; and the apparatus is configured to collect data indicative of the position or movement of the human subject's eyes.
A monolithic cervical or lumbar implant body for fusing spinal column segments, comprising an upper side and a lower side which are spaced apart from one another while maintaining an intermediate space, wherein the upper side and the lower side are connected by webs , furthermore the upper side and the lower side , with the exception of shape-defining and structure-reinforcing edge regions , are designed as a surface having openings and enclose an angle, at least one completely or partially open side surface for introducing bone substitute material, and a further side surface having a stabilisation region and a recess for temporarily receiving a surgical instrument in the stabilisation region, characterized in that the recess is formed as a continuous or interrupted round thread .
An isolated monoclonal antibody, or an antigen-binding fragment thereof, wherein the antibody or fragment binds to human T-cell immunoglobulin and ITIM domain (TIGIT) and is capable of inhibiting the binding of TIGIT to at least PVR (CD 155), wherein said antibody or antigen-binding fragment thereof comprises: (i) a heavy chain comprising a HCDR1 as set forth in SEQ ID NO: 1 or 11; HCDR2 as set forth in SEQ ID NO: 2; HCDR3 as set forth in SEQ ID NO: 3; and (ii) a light chain comprising a LCDR1 as set forth in SEQ ID NO: 4; LCDR2 as set forth in SEQ ID NO:5; and LCDR3 as set forth in SEQ ID NO: 6. (i) a heavy chain comprising a HCDR1 as set forth in SEQ ID NO: 1 or 11; HCDR2 as set forth in SEQ ID NO: 2; HCDR3 as set forth in SEQ ID NO: 3; and (ii) a light chain comprising a LCDR1 as set forth in SEQ ID NO: 4; LCDR2 as set forth in SEQ ID NO:5; and LCDR3 as set forth in SEQ ID NO: 6.
A computer-implemented method comprising: identifying a first computing workload and a second computing workload associated with one or more users of a service provider network; obtaining historical data indicating a number of compute instances of a compute instance pool that were used to execute the first computing workload, the compute instance pool representing an amount of compute capacity available to computing workloads associated with the one or more users and including a fixed number of compute instances; generating, based on the historical data, a predicted number of compute instances to be used to execute the first computing workload at a future point in time; and decreasing a number of compute instances in the compute instance pool available for use by the second computing workload in advance of the future point in time based on the predicted number of compute instances to be used to execute the first computing workload at the future point in time, characterised in that the computer-implemented method further comprises determining an amount of warm-up time associated with the first computing workload based on historical data indicating how long it took for the first computing workload to become fully operational with a new compute instance, wherein a time at which the number of compute instances in the compute instance pool available for use by the second computing workload is decreased is determined in part by information indicating the amount of warm-up time associated with the first computing workload. identifying a first computing workload and a second computing workload associated with one or more users of a service provider network; obtaining historical data indicating a number of compute instances of a compute instance pool that were used to execute the first computing workload, the compute instance pool representing an amount of compute capacity available to computing workloads associated with the one or more users and including a fixed number of compute instances; generating, based on the historical data, a predicted number of compute instances to be used to execute the first computing workload at a future point in time; and decreasing a number of compute instances in the compute instance pool available for use by the second computing workload in advance of the future point in time based on the predicted number of compute instances to be used to execute the first computing workload at the future point in time, characterised in that the computer-implemented method further comprises determining an amount of warm-up time associated with the first computing workload based on historical data indicating how long it took for the first computing workload to become fully operational with a new compute instance, wherein a time at which the number of compute instances in the compute instance pool available for use by the second computing workload is decreased is determined in part by information indicating the amount of warm-up time associated with the first computing workload.
Apparatus comprising means for: receiving, by a user equipment from an eNodeB , configuration information indicating that a mode of reporting of location information by the user equipment should be switched in response to the user equipment detecting a reference radio access network entity in the vicinity of the user equipment, wherein the configuration information includes location reporting mode priority information indicating relative priorities of at least two modes of reporting of location information; subsequently detecting, by the user equipment, a reference radio access network entity in the vicinity of the user equipment; and in accordance with the configuration information, responding to subsequently detecting the reference radio access network entity in the vicinity of the user equipment by switching, by the user equipment, from a currently-used mode of reporting of location information identifying, or enabling identification of, a location of the user equipment to using another available mode of reporting of location information when the location reporting mode priority information indicates that the currently-used mode of reporting of location information has a lower priority than does the other available mode of reporting of location information. receiving, by a user equipment from an eNodeB , configuration information indicating that a mode of reporting of location information by the user equipment should be switched in response to the user equipment detecting a reference radio access network entity in the vicinity of the user equipment, wherein the configuration information includes location reporting mode priority information indicating relative priorities of at least two modes of reporting of location information; subsequently detecting, by the user equipment, a reference radio access network entity in the vicinity of the user equipment; and in accordance with the configuration information, responding to subsequently detecting the reference radio access network entity in the vicinity of the user equipment by switching, by the user equipment, from a currently-used mode of reporting of location information identifying, or enabling identification of, a location of the user equipment to using another available mode of reporting of location information when the location reporting mode priority information indicates that the currently-used mode of reporting of location information has a lower priority than does the other available mode of reporting of location information.
A combination of a test system for a vehicle event recorder (DUT, 9) configured to identify and record an impact caused by a road accident, and the vehicle event recorder (DUT, 9); said event recorder (DUT, 9) being provided with at least one accelerometer and configured to detect a measured acceleration ( A out (t)); said test system comprising: - a database, containing a plurality of input acceleration profiles (A in (t)), each input acceleration profile representing an impact caused by a road accident; - a control system , configured to acquire at least one input acceleration profile (A in (t)) selected from said plurality of input acceleration profiles; - a mobile platform being under the thrust of an actuation system and provided with a support (3; 43) configured to stably carry said event recorder (DUT, 9) said control system configured to convert said selected input acceleration profile (A in (t)) into a position profile (P in (t)) and to control said actuation system to move said mobile platform according to said position profile (P in (t)); - a reference sensor arranged on said support (3; 43), configured to detect a reference acceleration (A ref (t)) during a movement operation of said mobile platform ; said control system being further configured to compare said reference acceleration ( A ref (t)) with said measured acceleration ( A out (t)), detected by said event recorder (DUT, 9) , during said movement operation of the mobile platform . - a database, containing a plurality of input acceleration profiles (A in (t)), each input acceleration profile representing an impact caused by a road accident; - a control system , configured to acquire at least one input acceleration profile (A in (t)) selected from said plurality of input acceleration profiles; - a mobile platform being under the thrust of an actuation system and provided with a support (3; 43) configured to stably carry said event recorder (DUT, 9) said control system configured to convert said selected input acceleration profile (A in (t)) into a position profile (P in (t)) and to control said actuation system to move said mobile platform according to said position profile (P in (t)); - a reference sensor arranged on said support (3; 43), configured to detect a reference acceleration (A ref (t)) during a movement operation of said mobile platform ;