mhurhangee/ep-ind-claims huggingface dataset:
A method for measuring the proliferation status of a cell present in a biological sample, said biological sample being obtained from a human patient suffering of a proliferation disorder or from a human patient having been submitted to a vaccination or to organ transplantation or from a human patient having or suspected to have or to develop an auto-immune disease, with the proviso that the said cell is not a human embryonic stem cell, the said method comprising the step of measuring in the said cell the loss of BACH2 either - by both fluorescence after in situ hybridization (FISH) analysis and mRNA quantification, or - by comparative genomic hybridization and wherein the said method further comprises a deducing step of proliferation status of the said cell characterized in that the method further comprises the step of measuring at the cell level the level of signalling kinases. - by both fluorescence after in situ hybridization (FISH) analysis and mRNA quantification, or - by comparative genomic hybridization and
Apparatus for determining at least one property of a person's foot, the apparatus comprising: a surface (114, 904) configured to allow a person to stand thereon; and a plurality of sensors (101, 906, 907) configured to measure properties of the person's foot while the person stands on the surface; computing means arranged to receive signals from at least a subset of the plurality of sensors (101, 906, 907), and operable to process the signals to determine at least one property of a foot of the person; wherein the computing means is arranged to: receive a first set of the signals obtained while the person stands on the surface (114, 904) on two feet; receive a second set of the signals obtained while the person stands on the surface (114, 904) on one foot; characterised in that the computing means is further arranged to: determine whether the person is standing on the surface on two feet or on one foot; and process the first and second sets of the signals to determine an arch index of the person. a surface (114, 904) configured to allow a person to stand thereon; and a plurality of sensors (101, 906, 907) configured to measure properties of the person's foot while the person stands on the surface; computing means arranged to receive signals from at least a subset of the plurality of sensors (101, 906, 907), and operable to process the signals to determine at least one property of a foot of the person; wherein the computing means is arranged to: receive a first set of the signals obtained while the person stands on the surface (114, 904) on two feet; receive a second set of the signals obtained while the person stands on the surface (114, 904) on one foot; characterised in that the computing means is further arranged to: determine whether the person is standing on the surface on two feet or on one foot; and process the first and second sets of the signals to determine an arch index of the person. receive a first set of the signals obtained while the person stands on the surface (114, 904) on two feet; receive a second set of the signals obtained while the person stands on the surface (114, 904) on one foot; characterised in that the computing means is further arranged to: determine whether the person is standing on the surface on two feet or on one foot; and process the first and second sets of the signals to determine an arch index of the person.
Electrically adjustable piece of furniture with at least two electric drive motors for adjusting at least one furniture adjustment section relative to a furniture support section of the piece of furniture, and with a sensor device for detecting the movement and/or position of the furniture adjustment section, wherein the sensor device comprises a permanent magnet which is non-rotatably connected to the drive shaft of one of the drive motors or to a rotating component driven by the drive shaft, and a sensor element in which a sensor signal can be generated depending on the magnetic field of the permanent magnet, the sensor element being a Reed switch, the switching position of which can be switched by the magnetic field of the permanent magnet, characterized in that the Reed switch is connected to its own voltage source, which is independent of a controller of the drive motor, the Reed switch delivering an electrical signal to a processor, which is also connected to the voltage source independent of the controller of the drive motor is connected, and that at least two electrical, independently controllable drive motors are arranged in the piece of furniture for adjusting the furniture adjustment section relative to the furniture support section, wherein a drive motor can be controlled exclusively as a function of sensor signals from at least one Reed switch, whereas at least one further drive motor can be controlled exclusively by evaluating gyro and/or gravity sensor signals.
A laser apparatus (100; 200; 300), comprising: a laser light generator configured to emit laser light, and further configured to adjust a frequency of the laser light; a laser light detector configured to let the laser light pass through an iodine cell having an absorption line, photoelectrically convert the laser light that has passed through the iodine cell, and then to output a first light output signal (S opt 1); a differential signal generator configured to generate a differential signal (S_D3) of the first light output signal (S opt 1); a frequency locker configured to control the laser light generator to change the frequency of the laser light within a predetermined range, the frequency locker additionally configured to detect an amplitude corresponding to a saturated absorption line occurring in the differential signal (S_D3), and further configured to stabilize the frequency of the laser light to a predetermined value within said range; and an error detector configured to output a first error (Err_1) signal indicating that the frequency stabilization is impossible due to temporary fluctuation in the laser light frequency due to an external disturbance, the first error signal being outputted when the amplitude of the differential signal (S_D3) at a frequency corresponding to the absorption line is greater than a predetermined value (V th) over which frequency stabilization is impossible. a laser light generator configured to emit laser light, and further configured to adjust a frequency of the laser light; a laser light detector configured to let the laser light pass through an iodine cell having an absorption line, photoelectrically convert the laser light that has passed through the iodine cell, and then to output a first light output signal (S opt 1); a differential signal generator configured to generate a differential signal (S_D3) of the first light output signal (S opt 1); a frequency locker configured to control the laser light generator to change the frequency of the laser light within a predetermined range, the frequency locker additionally configured to detect an amplitude corresponding to a saturated absorption line occurring in the differential signal (S_D3), and further configured to stabilize the frequency of the laser light to a predetermined value within said range; and an error detector configured to output a first error (Err_1) signal indicating that the frequency stabilization is impossible due to temporary fluctuation in the laser light frequency due to an external disturbance, the first error signal being outputted when the amplitude of the differential signal (S_D3) at a frequency corresponding to the absorption line is greater than a predetermined value (V th) over which frequency stabilization is impossible.
A pharmaceutical composition, comprising a pharmaceutically acceptable carrier, diluent, excipient or auxiliary agent and, as active ingredient, fibrils of insulin, active in soluble monomeric form, which fibrils are (a) encapsulated in a lipidated glycosaminoglycan particle, which comprises the reaction product of at least one glycosaminoglycan with at least one lipid having a primary amino group or (b) coated with a multi-layer of at least two lipids and conjugates of one of said at least two lipids and at least one glycosaminoglycan in the form of multi-lamellar liposomes.
A wound closure device, comprising: a stabilizing structure (7002, 7008, 8000, 8100, 8300, 8400), comprising: a plurality of cells provided side-by-side in a horizontal plane parallel to a length and width of the stabilizing structure, each cell defined by a plurality of walls extending in a vertical direction perpendicular to the horizontal plane wherein, under negative pressure, the stabilizing structure collapses more in the horizontal plane than in a vertical plane perpendicular to the horizontal plane; and characterized by a plurality of dissolvable portions (7004, 7011, 8004, 8102, 8304, 8402) positioned within the cells, the dissolvable portions configured to dissolve over time wherein the dissolvable portions comprise dissolvable material and wherein the dissolvable material props open the stabilizing structure to prevent the stabilizing structure from collapsing when the dissolvable material is in a solid form. a plurality of cells provided side-by-side in a horizontal plane parallel to a length and width of the stabilizing structure, each cell defined by a plurality of walls extending in a vertical direction perpendicular to the horizontal plane wherein, under negative pressure, the stabilizing structure collapses more in the horizontal plane than in a vertical plane perpendicular to the horizontal plane; and characterized by a plurality of dissolvable portions (7004, 7011, 8004, 8102, 8304, 8402) positioned within the cells, the dissolvable portions configured to dissolve over time wherein the dissolvable portions comprise dissolvable material and wherein the dissolvable material props open the stabilizing structure to prevent the stabilizing structure from collapsing when the dissolvable material is in a solid form.
An apparatus comprising: an image obtaining unit configured to acquire an image; a display for presenting an image; and processing circuitry (200, 300) configured to: determine surfaces occurring in the acquired image; create virtual markers in the acquired image, each virtual marker representing an area of interest in the acquired image; map the virtual markers to the determined surfaces to derive virtually marked surfaces; map the virtually marked surfaces of the acquired image to corresponding virtually marked surfaces of a pre-calculated 3D model to derive a shape scene model (360, 362); and generate, based on the acquired image and the shape scene model (360, 362) an augmented reality representation of the acquired image, the augmented reality representation comprising at least one artificial object; characterized in that the processing circuitry (200, 300) is configured to generate a depth map of the acquired image; generate an enhanced depth map for the acquired image based on the generated depth map and the determined surfaces; and to generate the augmented reality representation based on the acquired image, the generated enhanced depth map, and on the derived shape scene model (360, 362). an image obtaining unit configured to acquire an image; a display for presenting an image; and processing circuitry (200, 300) configured to: determine surfaces occurring in the acquired image; create virtual markers in the acquired image, each virtual marker representing an area of interest in the acquired image; map the virtual markers to the determined surfaces to derive virtually marked surfaces; map the virtually marked surfaces of the acquired image to corresponding virtually marked surfaces of a pre-calculated 3D model to derive a shape scene model (360, 362); and generate, based on the acquired image and the shape scene model (360, 362) an augmented reality representation of the acquired image, the augmented reality representation comprising at least one artificial object; determine surfaces occurring in the acquired image; create virtual markers in the acquired image, each virtual marker representing an area of interest in the acquired image; map the virtual markers to the determined surfaces to derive virtually marked surfaces; map the virtually marked surfaces of the acquired image to corresponding virtually marked surfaces of a pre-calculated 3D model to derive a shape scene model (360, 362); and generate, based on the acquired image and the shape scene model (360, 362) an augmented reality representation of the acquired image, the augmented reality representation comprising at least one artificial object;
A blood pressure monitor device comprising: a cuff for wrapping around a limb of a subject the cuff further having a an inflatable bladder formed integrally therein, wherein the cuff is substantially rectangular in shape having a first surface, a second surface, a first end, a second end, and two sides, and a securement mechanism; one or more tubes positioned within the cuff in communication with the inflatable bladder; an exhaust valve; a displayless housing connected to one of a first end and a second end of the cuff wherein the housing includes one or more of a controller, a memory, a pump, a power supply, and a motor; and a transmitter for wirelessly transmitting blood pressure data to a second device; characterised in that the blood pressure monitor device further comprises a pulley; and wherein the pulley engages the housing along an end and further wherein movement of the pulley away from the housing activates the monitoring device from an off condition to an on condition. a cuff for wrapping around a limb of a subject the cuff further having a an inflatable bladder formed integrally therein, wherein the cuff is substantially rectangular in shape having a first surface, a second surface, a first end, a second end, and two sides, and a securement mechanism; one or more tubes positioned within the cuff in communication with the inflatable bladder; an exhaust valve; a displayless housing connected to one of a first end and a second end of the cuff wherein the housing includes one or more of a controller, a memory, a pump, a power supply, and a motor; and a transmitter for wirelessly transmitting blood pressure data to a second device; characterised in that the blood pressure monitor device further comprises a pulley; and wherein the pulley engages the housing along an end and further wherein movement of the pulley away from the housing activates the monitoring device from an off condition to an on condition.
Changeover valve comprising a valve top as well as a wall connection housing with at least one inlet channel and at least three outlet channels (12, 13, 14), which open into a valve seat for receiving the valve top, which valve top has a base piece with at least three outlet openings, which can be connected via the valve seat in each case to one of the at least three outlet channels (12, 13, 14), and further has at least one feed, which is connected to the at least one inlet channel and which can be connected to at least one of the at least three outlet openings via a control disc, wherein the control disc is rotatable relative to a stationary inlet disc via a spindle, with which it engages, wherein the base piece has at least one positioning pin, which engages in a positioning bore arranged in the valve seat, characterised in that in the valve seat at least two positioning bores for engaging with the at least one positioning pin in different assembly positions of the valve top are present.
A motor vehicle door latch, comprising a locking mechanism (1, 2) consisting substantially of a catch and pawl, and comprising a reversible drive which has an electric motor and an output element which can be acted upon by said motor, the drive opening the locking mechanism (1, 2) in a first direction and transferring said locking mechanism, in a second direction different from the first, into a different functional position, in particular a securing position, a temporarily acting stop being provided for the drive, which stop delimits the movement at least when acted upon in the first direction in order to override the functional position and thus prevents the locking mechanism (1, 2) from electrically opening, the output element being designed as a driven pulley which can be rotated about an axis, the counter-clockwise rotation of the driven pulley corresponding to the first direction and the clockwise rotation thereof corresponding to the second direction, the stop being designed as a pin which can be moved radially relative to the rotatable output element, characterized in that the pin is moved in accordance with signals transmitted by at least one sensor (17, 20) to a control unit.
A palladium plate coated material comprising: a base material; an underlying alloy layer formed on the base material; and a palladium plated layer formed on the underlying alloy layer, wherein the underlying alloy layer is formed of a Ni-Pd-P alloy, characterized in that a ratio of each element in the Ni-Pd-P alloy is that Ni is 15 to 65 at. %, Pd is 20 to 60 at. %, and P is 15 to 40 at. %, the base material is one selected from steel, stainless steel, Al, Al alloy, Ti, Ti alloy, Cu, Cu alloy, Ni, and Ni alloy, a thickness of the underlying alloy layer is 5 to 100 nm, and a modifying layer is optionally comprised between the base material and the underlying alloy layer to enhance the interfacial adhesion property between the base material and the underlying alloy layer, the modifying layer being a Ni-based layer. a base material; an underlying alloy layer formed on the base material; and a palladium plated layer formed on the underlying alloy layer, wherein the underlying alloy layer is formed of a Ni-Pd-P alloy, characterized in that a ratio of each element in the Ni-Pd-P alloy is that Ni is 15 to 65 at. %, Pd is 20 to 60 at. %, and P is 15 to 40 at. %, the base material is one selected from steel, stainless steel, Al, Al alloy, Ti, Ti alloy, Cu, Cu alloy, Ni, and Ni alloy, a thickness of the underlying alloy layer is 5 to 100 nm, and a modifying layer is optionally comprised between the base material and the underlying alloy layer to enhance the interfacial adhesion property between the base material and the underlying alloy layer, the modifying layer being a Ni-based layer.
A method for controlling a vehicle brake, the brake comprising an electromechanical actuator which includes an electric motor, the method comprising: controlling the actuator from the temperature of the motor, wherein the temperature of the motor is estimated from the motor constant and the ohmic resistance of the motor, characterised in that the method for controlling the brake comprises a step of determining a first temperature corrective coefficient (α 1) of the motor, on the basis of a first function (f 1) which is representative of a ratio of an angular speed (ω) of the motor to the supply current (i) of the motor as a function of the supply voltage (u) of the motor, and/or the method for controlling the brake comprises a step of determining a second temperature corrective coefficient (α 2) of the motor, on the basis of a second function (f 2) which is representative of a ratio of the ohmic resistance of the motor to the motor constant as a function of the temperature of the motor. controlling the actuator from the temperature of the motor, wherein the temperature of the motor is estimated from the motor constant and the ohmic resistance of the motor, characterised in that the method for controlling the brake comprises a step of determining a first temperature corrective coefficient (α 1) of the motor, on the basis of a first function (f 1) which is representative of a ratio of an angular speed (ω) of the motor to the supply current (i) of the motor as a function of the supply voltage (u) of the motor, and/or the method for controlling the brake comprises a step of determining a second temperature corrective coefficient (α 2) of the motor, on the basis of a second function (f 2) which is representative of a ratio of the ohmic resistance of the motor to the motor constant as a function of the temperature of the motor.
Use of a compound represented by the formula: wherein Z 1 is a C 1 -C 4 hydrocarbon group, Z 2 is a hydrogen atom, or Z 1 and Z 2 are joined to form a bond, R 1 is a C 1 -C 4 hydrocarbon group optionally having fluorine atom(s), R 2 is a halogen atom or a C 1 -C 4 hydrocarbon group, and n is an integer of 0 to 4, as a rodentia animal repellent. wherein Z 1 is a C 1 -C 4 hydrocarbon group, Z 2 is a hydrogen atom, or Z 1 and Z 2 are joined to form a bond, R 1 is a C 1 -C 4 hydrocarbon group optionally having fluorine atom(s), R 2 is a halogen atom or a C 1 -C 4 hydrocarbon group, and n is an integer of 0 to 4, as a rodentia animal repellent.
A method comprising: obtaining telemetry data for one or more domains within a network, the telemetry data for the one or more domains including both encrypted traffic analytics information associated with network traffic in the network and traffic flow information associated with the network traffic; for each domain of the one or more domains, generating a model comprising a mapping from a plurality of traffic flow information features to at least one encrypted traffic analytics feature; generating a database comprising the generated models for each of the one or more domains; obtaining telemetry data for a target domain that includes traffic flow information, but does not include encrypted traffic analytics information; determining at least one encrypted traffic analytics feature of the target domain based on a plurality of traffic flow information features of the target domain using the mapping between traffic flow information and encrypted traffic analytics information of the database; and using the determined traffic analytics feature(s) to assess whether a service hosted by the target domain is malware or benign. obtaining telemetry data for one or more domains within a network, the telemetry data for the one or more domains including both encrypted traffic analytics information associated with network traffic in the network and traffic flow information associated with the network traffic; for each domain of the one or more domains, generating a model comprising a mapping from a plurality of traffic flow information features to at least one encrypted traffic analytics feature; generating a database comprising the generated models for each of the one or more domains; obtaining telemetry data for a target domain that includes traffic flow information, but does not include encrypted traffic analytics information; determining at least one encrypted traffic analytics feature of the target domain based on a plurality of traffic flow information features of the target domain using the mapping between traffic flow information and encrypted traffic analytics information of the database; and using the determined traffic analytics feature(s) to assess whether a service hosted by the target domain is malware or benign.