mhurhangee/patent-ind-claim-en huggingface dataset:
A method for implementing a simulation mode on a medical device , the medical device being configured in a standard mode to receive a set of one or more sensor inputs at a communication interface , each carrying a signal representative of a clinical parameter, to couple the sensor inputs to a processor , and the processor configured to generate a user output at a user interface , based on the one or more sensor inputs, the method comprising: detecting the set of sensor inputs connected at the communication interface; interrupting the coupling of the sensor inputs to the processor, and coupling to the processor, in place of the sensor inputs, a set of one or more simulation signals , each configured to simulate a sensor input carrying a particular clinical parameter, wherein the clinical parameters of the simulation signals is selected based at least in part on the detected sensor inputs connected at the communication interface, characterized in that the method further comprises interrupting a communication channel between the medical device and one or more components of a medical facility monitoring network. the medical device being configured in a standard mode to receive a set of one or more sensor inputs at a communication interface , each carrying a signal representative of a clinical parameter, to couple the sensor inputs to a processor , and the processor configured to generate a user output at a user interface , based on the one or more sensor inputs, the method comprising: detecting the set of sensor inputs connected at the communication interface; interrupting the coupling of the sensor inputs to the processor, and coupling to the processor, in place of the sensor inputs, a set of one or more simulation signals , each configured to simulate a sensor input carrying a particular clinical parameter, wherein the clinical parameters of the simulation signals is selected based at least in part on the detected sensor inputs connected at the communication interface, characterized in that the method further comprises interrupting a communication channel between the medical device and one or more components of a medical facility monitoring network. detecting the set of sensor inputs connected at the communication interface; interrupting the coupling of the sensor inputs to the processor, and coupling to the processor, in place of the sensor inputs, a set of one or more simulation signals , each configured to simulate a sensor input carrying a particular clinical parameter, wherein the clinical parameters of the simulation signals is selected based at least in part on the detected sensor inputs connected at the communication interface, characterized in that the method further comprises interrupting a communication channel between the medical device and one or more components of a medical facility monitoring network.
A surgical robot system comprising: - a display ; - a housing ; - an arm ; - an end effectuator coupled to the arm and - a guided surgical tool assembly (35; 300) coupled to the arm , the guided surgical tool assembly comprising: - a guide tube including at least one sensor disposed on the guide tube ; - a surgical instrument configured to be received within the guide tube , the surgical instrument including at least one detectable feature; and wherein the at least one detectable feature is a magnetic strip that extends longitudinally along a length of the surgical instrument ; - wherein the at least one sensor is configured and arranged to detect the at least one detectable feature when the surgical instrument is inside the guide tube , and - wherein the system further comprises a plurality of tracking markers configured to track the movement of the robot arm , the end-effectuator , and/or the surgical instrument in three dimensions, - at least one tracking markers of the plurality of tracking markers is positioned on the end-effectuator so as to maximize the accuracy of the positional measurements. - a display ; - a housing ; - an arm ; - an end effectuator coupled to the arm and - a guided surgical tool assembly (35; 300) coupled to the arm , the guided surgical tool assembly comprising: - a guide tube including at least one sensor disposed on the guide tube ; - a surgical instrument configured to be received within the guide tube , the surgical instrument including at least one detectable feature; and wherein the at least one detectable feature is a magnetic strip that extends longitudinally along a length of the surgical instrument ; - wherein the at least one sensor is configured and arranged to detect the at least one detectable feature when the surgical instrument is inside the guide tube , and - wherein the system further comprises a plurality of tracking markers configured to track the movement of the robot arm , the end-effectuator , and/or the surgical instrument in three dimensions, - at least one tracking markers of the plurality of tracking markers is positioned on the end-effectuator so as to maximize the accuracy of the positional measurements.
Farm for rearing insects, said farm comprising a first zone (Z1) in which insects are stored during their growth in containers (C1, C2) and a second zone (Z2) comprising at least one station (P1,P2) configured for performing an operation on the insects of a container or on said container; the farm comprising automated guided vehicles (AGV) configured for the movement of the containers in the farm, that is to say within the first zone (Z1), and/or within the second zone (Z2), and between the first zone (Z1) and the second zone (Z2), characterized in that said automated guided vehicles (AGV) comprise at least one instrument-equipped automated guided vehicle (IAGV), said instrument-equipped automated guided vehicle (IAGV) being equipped with at least one sensor configured to perform a measurement of a parameter characteristic of a state of the farm.
Air inlet in a surface , which has: - an opening in the surface which has a longitudinal axis , wherein a fluid is provided to flow over the air inlet in a direction of the longitudinal axis , and wherein the opening comprises an upstream edge and a downstream edge , - an outflow channel which abuts against the opening and extends at an angle to the surface , wherein the outflow channel comprises an inner wall which has an upstream casing surface and a downstream casing surface , wherein the upstream casing surface abuts against the upstream edge of the opening and the downstream casing surface abuts against the downstream edge of the opening , characterised in that - the opening abutting against the upstream edge is partially or completely covered by a lattice , and - the outflow channel has a bulge projecting into the outflow channel in the region of its upstream casing surface , which bulge constantly increases in thickness (d) in a longitudinal direction of the outflow channel abutting against the upstream edge , forms a thickness maximum (d max ) and constantly decreases in its thickness after the thickness maximum (d max ). - an opening in the surface which has a longitudinal axis , wherein a fluid is provided to flow over the air inlet in a direction of the longitudinal axis , and wherein the opening comprises an upstream edge and a downstream edge , - an outflow channel which abuts against the opening and extends at an angle to the surface , wherein the outflow channel comprises an inner wall which has an upstream casing surface and a downstream casing surface , wherein the upstream casing surface abuts against the upstream edge of the opening and the downstream casing surface abuts against the downstream edge of the opening , characterised in that - the opening abutting against the upstream edge is partially or completely covered by a lattice , and - the outflow channel has a bulge projecting into the outflow channel in the region of its upstream casing surface , which bulge constantly increases in thickness (d) in a longitudinal direction of the outflow channel abutting against the upstream edge , forms a thickness maximum (d max ) and constantly decreases in its thickness after the thickness maximum (d max ).
A method for determining the potential of a protein to self-associate, the method comprising: a. combining a protein, a nanoparticle, and a buffered salt to form a sample; b. exciting the sample with light; c. measuring the light transmitted through the sample at multiple wavelengths ranging from 450 nm to about 750 nm; d. calculating the absorbance intensity ratio of the sample, wherein the absorbance intensity ratio is the ratio of absorbance intensity at the maximum absorbance (λ max ) to the initial absorbance at 450 nm; wherein the protein is stable at high concentration when the absorbance intensity ratio exceeds a 1.7. a. combining a protein, a nanoparticle, and a buffered salt to form a sample; b. exciting the sample with light; c. measuring the light transmitted through the sample at multiple wavelengths ranging from 450 nm to about 750 nm; d. calculating the absorbance intensity ratio of the sample, wherein the absorbance intensity ratio is the ratio of absorbance intensity at the maximum absorbance (λ max ) to the initial absorbance at 450 nm;
Microfluidic flow cell having a storage space which receives liquid reagent material and/or sample material and which is connected to an inlet channel for a fluid which transports out of the storage space the reagent material and/or sample material and to an outlet channel for the reagent material and/or sample material and the fluid , wherein the inlet channel and the outlet channel are connected by a bypass which bypasses the storage space , characterized in that , for the venting of the inlet channel , the flow cross section of the bypass is just sufficient to prevent reagent material and/or sample material from being transported, by way of air pressure increasing in the inlet channel , out of the storage space .
A shaft system comprising a first coupling for allowing torque transmission between a first and second shaft , the first coupling comprising: a cup-shaped portion provided at a first end of said first shaft and a first end of said second shaft being positioned within said cup-shaped portion ; and said coupling further comprising a biasing means positioned between said first and second shafts , such that said biasing means is in contact with both of said first and second shafts ; wherein the second shaft comprises an internal cavity , and wherein said biasing means is provided within said cavity ; the shaft system further comprising: a third shaft ; and a second coupling being provided between said third shaft and either a second end of said first shaft or a second end of said second shaft , wherein said second coupling is identical to the first coupling , wherein the biasing means of the second coupling is located in an internal cavity of one of the shafts, wherein the one of the shafts does not have the cup-shaped portion. a cup-shaped portion provided at a first end of said first shaft and a first end of said second shaft being positioned within said cup-shaped portion ; and said coupling further comprising a biasing means positioned between said first and second shafts , such that said biasing means is in contact with both of said first and second shafts ; wherein the second shaft comprises an internal cavity , and wherein said biasing means is provided within said cavity ; the shaft system further comprising: a third shaft ; and a second coupling being provided between said third shaft and either a second end of said first shaft or a second end of said second shaft , wherein said second coupling is identical to the first coupling , wherein the biasing means of the second coupling is located in an internal cavity of one of the shafts, wherein the one of the shafts does not have the cup-shaped portion. a third shaft ; and a second coupling being provided between said third shaft and either a second end of said first shaft or a second end of said second shaft , wherein said second coupling is identical to the first coupling , wherein the biasing means of the second coupling is located in an internal cavity of one of the shafts, wherein the one of the shafts does not have the cup-shaped portion.
Cutting-blade holder having a cutting blade with a base which is arranged in a fixed location to a machine, while the cutting blade is inserted into a holder, characterized in that the holder is arranged on the base such that it can be pivoted and the point of rotation of the holder in relation to the base is the tip of the cutting blade inserted in the cutting area.
A method of performing remote diagnostic on a vehicle, the method comprising: collecting and storing high-fidelity data of measured events in a buffer memory or a data storage device by means of a controller of the vehicle electronics which is associated with sensors or measurement devices at the vehicle, the storing and aggregation of the high-fidelity data performed for later transmission over a vehicle data bus for subsequent analysis by a central data processing system consistent with configuration files to support engineering analysis or diagnostics on vehicle components, systems or performance; retrieving supplemental data via a low bandwidth transmission at a lower sampling rate than the sampling rate of the high-fidelity data by the vehicle electronics at the vehicle to supplement the recorded high-fidelity data; transmitting the recorded high-fidelity data and retrieved supplemental data to the central electronic data processing system and processing, with the central electronic data processing system , the recorded high-fidelity data and retrieved supplemental data to generate a diagnostic status report message; organizing the diagnostic report message, the recorded high fidelity data and the retrieved supplemental data into a data mart or diagnostics database to support engineering analysis or diagnostics on vehicle components, systems or performance; characterized in that the high-fidelity data comprises data gathered at a sample rate higher than sample rates required for the controller to perform non-diagnostic features during normal operation of the controller . collecting and storing high-fidelity data of measured events in a buffer memory or a data storage device by means of a controller of the vehicle electronics which is associated with sensors or measurement devices at the vehicle, the storing and aggregation of the high-fidelity data performed for later transmission over a vehicle data bus for subsequent analysis by a central data processing system consistent with configuration files to support engineering analysis or diagnostics on vehicle components, systems or performance; retrieving supplemental data via a low bandwidth transmission at a lower sampling rate than the sampling rate of the high-fidelity data by the vehicle electronics at the vehicle to supplement the recorded high-fidelity data; transmitting the recorded high-fidelity data and retrieved supplemental data to the central electronic data processing system and processing, with the central electronic data processing system , the recorded high-fidelity data and retrieved supplemental data to generate a diagnostic status report message; organizing the diagnostic report message, the recorded high fidelity data and the retrieved supplemental data into a data mart or diagnostics database to support engineering analysis or diagnostics on vehicle components, systems or performance; characterized in that the high-fidelity data comprises data gathered at a sample rate higher than sample rates required for the controller to perform non-diagnostic features during normal operation of the controller .
Apparatus for encoding image data, the image data being decomposed into a plurality of different subbands (101-109), each subband comprising a plurality of coefficients, wherein a first subband of the plurality of different subbands (101-109) comprises a first set of coefficients , wherein a different second subband of the plurality of different subbands (101-109) comprises a different second set of coefficients , wherein a precinct comprises the first and the second sets of coefficients from the first and the second subbands of the plurality of different subbands (101-109), wherein the first and the second sets of coefficients of the precinct belong to a spatial region of an image represented by the image data, the apparatus comprising: a processor for determining, for each group (1011-1014) of coefficients within a set, a greatest coded line index (GCLI); an encoder for encoding the greatest coded line indices associated with the first set of coefficients of the precinct in accordance with a first encoding mode, and for encoding the greatest coded line indices associated with the second set of coefficients of the precinct in accordance with a second encoding mode, the second encoding mode being different from the first encoding mode; and an output interface for outputting an encoded image signal having data on the encoded greatest coded line indices and data on the coefficients, wherein the first encoding mode and the second encoding mode are selected from a set of encoding modes comprising at least two of: a vertical prediction encoding mode, a horizontal prediction encoding mode, and a raw encoding mode. a processor for determining, for each group (1011-1014) of coefficients within a set, a greatest coded line index (GCLI); an encoder for encoding the greatest coded line indices associated with the first set of coefficients of the precinct in accordance with a first encoding mode, and for encoding the greatest coded line indices associated with the second set of coefficients of the precinct in accordance with a second encoding mode, the second encoding mode being different from the first encoding mode; and an output interface for outputting an encoded image signal having data on the encoded greatest coded line indices and data on the coefficients, wherein the first encoding mode and the second encoding mode are selected from a set of encoding modes comprising at least two of: a vertical prediction encoding mode, a horizontal prediction encoding mode, and a raw encoding mode.
A method performed by a test system coupled to a network under test , comprising: the test system emulating a plurality of users, each emulated user, referred to as EU, executing an EU activity, wherein each EU activity comprises one or more commands; the test system reporting a result of emulating the plurality of users; characterized in that at least some EU activities comprises a first command associated with a first protocol synchronized with a second command associated with a second protocol different from the first protocol, wherein the first command comprises a layer 2 or layer 3 command including one of an eGTP bearer modification, handover, session tear down or DHCP request command and wherein the second command comprises a command from one of layers 4-7. the test system emulating a plurality of users, each emulated user, referred to as EU, executing an EU activity, wherein each EU activity comprises one or more commands; the test system reporting a result of emulating the plurality of users; characterized in that at least some EU activities comprises a first command associated with a first protocol synchronized with a second command associated with a second protocol different from the first protocol, wherein the first command comprises a layer 2 or layer 3 command including one of an eGTP bearer modification, handover, session tear down or DHCP request command and wherein the second command comprises a command from one of layers 4-7.
Method for determining at least one geometric property of a manipulator that influences end-effector motions of the manipulator, wherein the manipulator is arranged to be controlled by a control system for moving an end-effector of the manipulator to target poses, and wherein the manipulator comprises at least two axes whereof at least one axis comprises at least one elasticity and is affected by friction effects, wherein an axis comprises a joint and a linkage, characterized in that the method comprises: - constraining motion (A1) of the manipulator by means of a constraining device such that the motion of the manipulator is physically constrained in at least one degree of freedom, and thereby enable a constrained manipulator motion and correspondingly a constrained motor motion for the at least one axis; - commanding (A2) the manipulator to approach a set of target poses where for each target pose a physical pose is reached in which the constrained manipulator motion can be performed, which includes a non-zero constrained motor motion; - performing friction-aware control (A3) of the constrained manipulator motion for a period of time, to accomplish well-defined friction forces/torques that can be separated from the friction effects, while monitoring quantities related to motor torque and to motor angle of the at least one axis; - performing (A4) an identification of a set of kinematic parameters for an elasto-kinematic model that includes at least one known quantity representing the at least one elasticity, the identification being based on the monitored quantities and on elastic properties of the manipulator, where the friction effects are excluded from the identification; - obtaining (A5) the at least one geometric property of the manipulator based on the identified set of kinematic parameters. - constraining motion (A1) of the manipulator by means of a constraining device such that the motion of the manipulator is physically constrained in at least one degree of freedom, and thereby enable a constrained manipulator motion and correspondingly a constrained motor motion for the at least one axis; - commanding (A2) the manipulator to approach a set of target poses where for each target pose a physical pose is reached in which the constrained manipulator motion can be performed, which includes a non-zero constrained motor motion; - performing friction-aware control (A3) of the constrained manipulator motion for a period of time, to accomplish well-defined friction forces/torques that can be separated from the friction effects, while monitoring quantities related to motor torque and to motor angle of the at least one axis; - performing (A4) an identification of a set of kinematic parameters for an elasto-kinematic model that includes at least one known quantity representing the at least one elasticity, the identification being based on the monitored quantities and on elastic properties of the manipulator, where the friction effects are excluded from the identification; - obtaining (A5) the at least one geometric property of the manipulator based on the identified set of kinematic parameters.
A pharmaceutical composition for use in treating cancers harboring serine/threonine kinase 11 (STK11) mutation, comprising, as an active ingredient, a material for inhibiting a sodium-potassium transport function of sodium/potassium-transporting ATPase subunit alpha-1 (Na + -K + ATPase subunit alpha-1, ATP1A1), wherein the material comprises a cardiac glycoside selected from the group consisting of digoxin, ouabain, and digitoxin.