mhurhangee/ep-ind-claims huggingface dataset:
A non-transient machine readable medium containing program instructions for causing a a neuromodulator configured to be connected to electrodes and deliver neuromodulation energy to one or more neural targets through said electrodes to: determine target energy allocations for a plurality of said electrodes based on at least one target pole to provide a target sub-perception modulation field; calibrate a plurality of electrode groups in said plurality of electrodes where each of the plurality of electrode groups is in an electrode configuration and includes an electrode set of at least one electrode from the plurality of electrodes, wherein the calibrate the electrode groups includes, for each of the plurality of electrode groups, delivering modulation energy to a neural target and receiving a feedback metric; and normalize the target sub-perception modulation field, including determine a space domain scaling factor using the feedback metric to account for displacement between electrodes or between electrode and tissue, and apply the space domain scaling factor to the target energy allocations. determine target energy allocations for a plurality of said electrodes based on at least one target pole to provide a target sub-perception modulation field; calibrate a plurality of electrode groups in said plurality of electrodes where each of the plurality of electrode groups is in an electrode configuration and includes an electrode set of at least one electrode from the plurality of electrodes, wherein the calibrate the electrode groups includes, for each of the plurality of electrode groups, delivering modulation energy to a neural target and receiving a feedback metric; and normalize the target sub-perception modulation field, including determine a space domain scaling factor using the feedback metric to account for displacement between electrodes or between electrode and tissue, and apply the space domain scaling factor to the target energy allocations.
A system, comprising: a linear induction motor installed in a curved portion of a track; a ride vehicle disposed upon the track; one or more reaction plates coupled to a side of the ride vehicle facing the track via a plurality of actuators, wherein each reaction plate is sized appropriately and articulated, made of flexible material, segmented, or a combination thereof to allow actuators to bend it; one or more sensors configured to monitor an air gap between the one or more reaction plates and the LIM; and a processor configured to determine which of the plurality of actuators to actuate and a desired performance of each of the plurality of actuators based on data received from the one or more sensors to bend or morph one or more reaction plates to maintain the air gap at a desired level throughout traversal of the curved portion of the track by the ride vehicle. a linear induction motor installed in a curved portion of a track; a ride vehicle disposed upon the track; one or more reaction plates coupled to a side of the ride vehicle facing the track via a plurality of actuators, wherein each reaction plate is sized appropriately and articulated, made of flexible material, segmented, or a combination thereof to allow actuators to bend it; one or more sensors configured to monitor an air gap between the one or more reaction plates and the LIM; and a processor configured to determine which of the plurality of actuators to actuate and a desired performance of each of the plurality of actuators based on data received from the one or more sensors to bend or morph one or more reaction plates to maintain the air gap at a desired level throughout traversal of the curved portion of the track by the ride vehicle.
Method for determining and/or controlling a position of an electric motor, in particular in a clutch-actuation system of a motor vehicle, in which the position of a rotor of the electric motor is obtained from a sensor system which is arranged on a stator of the electric motor, outside a rotational axis of the electric motor, wherein the position signal which is obtained from the sensor system is evaluated by an evaluation unit, characterized in that the position signal is transmitted as a function of a transmission distance between the sensor system and the evaluation unit, by means of an SPI protocol signal in the case of short transmission distances and/or by means of a PWM signal in the case of relatively long transmission distances.
A multi-core lithium ion battery, comprising: a hermetically sealed enclosure, including a lithium ion cell region and a shared atmosphere region in the interior of the enclosure; a support member disposed within the lithium ion cell region of the sealed enclosure, the support member including a plurality of cavities, each cavity having a closed end and an open end, wherein the open end is open to the shared atmosphere region; a plurality of lithium ion core members, each of the plurality of lithium ion core members having an anode and a cathode disposed within a corresponding one of the plurality of cavities, and a separator disposed between the anode and the cathode; and wherein said anode and said cathode are directly exposed to the shared atmosphere region by way of the open end of the cavity and said anode and said cathode are surrounded by said cavity along their respective lengths, further characterized in that the multi-core lithium ion battery includes a plurality of cavity liners, each positioned between a corresponding one of the lithium ion core members and a surface of a corresponding one of the cavities, wherein the cavity liners are formed of a plastic that is chemically inert to electrolyte, a ceramic or metal material, and are moisture and electrolyte impermeable, and further including an electrolyte contained within each of the cores. a hermetically sealed enclosure, including a lithium ion cell region and a shared atmosphere region in the interior of the enclosure; a support member disposed within the lithium ion cell region of the sealed enclosure, the support member including a plurality of cavities, each cavity having a closed end and an open end, wherein the open end is open to the shared atmosphere region; a plurality of lithium ion core members, each of the plurality of lithium ion core members having an anode and a cathode disposed within a corresponding one of the plurality of cavities, and a separator disposed between the anode and the cathode; and wherein said anode and said cathode are directly exposed to the shared atmosphere region by way of the open end of the cavity and said anode and said cathode are surrounded by said cavity along their respective lengths, further characterized in that the multi-core lithium ion battery includes a plurality of cavity liners, each positioned between a corresponding one of the lithium ion core members and a surface of a corresponding one of the cavities, wherein the cavity liners are formed of a plastic that is chemically inert to electrolyte, a ceramic or metal material, and are moisture and electrolyte impermeable, and further including an electrolyte contained within each of the cores.
A computer processor, the processor comprising: a decode unit for decoding a stream of instruction packets from a memory, each instruction packet comprising a plurality of instructions; characterised in that the processor comprises: a processing channel comprising a plurality of functional units and operable to perform control processing operations; wherein the decode unit is operable to receive and decode instruction packets of a bit length of 64 bits and to detect if the instruction packet defines three control instructions each having a bit length of 21 bits and wherein when the decode unit detects that the instruction packet comprises three such control instructions said control instructions are supplied to the processing channel for execution in the order in which they appear in the instruction packet, said detection using an identification bit in the instruction packet. a decode unit for decoding a stream of instruction packets from a memory, each instruction packet comprising a plurality of instructions; characterised in that the processor comprises: a processing channel comprising a plurality of functional units and operable to perform control processing operations; wherein the decode unit is operable to receive and decode instruction packets of a bit length of 64 bits and to detect if the instruction packet defines three control instructions each having a bit length of 21 bits and wherein when the decode unit detects that the instruction packet comprises three such control instructions said control instructions are supplied to the processing channel for execution in the order in which they appear in the instruction packet, said detection using an identification bit in the instruction packet. a processing channel comprising a plurality of functional units and operable to perform control processing operations; wherein the decode unit is operable to receive and decode instruction packets of a bit length of 64 bits and to detect if the instruction packet defines three control instructions each having a bit length of 21 bits and wherein when the decode unit detects that the instruction packet comprises three such control instructions said control instructions are supplied to the processing channel for execution in the order in which they appear in the instruction packet, said detection using an identification bit in the instruction packet.
A cheek pad for a helmet, the cheek pad comprising: an outer layer; an inner layer; and a sliding interface between the outer layer and the inner layer; wherein the outer layer and the inner layer are configured to slide relative to each other at the sliding interface, in response to an impact to the helmet, and characterised in that the inner layer is configured to contact a side of the wearer's face, when the cheek pads are arranged in the helmet and the helmet is worn. an outer layer; an inner layer; and a sliding interface between the outer layer and the inner layer; wherein the outer layer and the inner layer are configured to slide relative to each other at the sliding interface, in response to an impact to the helmet, and characterised in that the inner layer is configured to contact a side of the wearer's face, when the cheek pads are arranged in the helmet and the helmet is worn.
A computer based system for controlling a cursor, the computer based system comprising: at least one force sensor configured to detect an amount of force applied by an object to an outer surface of an input device; one or more position sensors configured to detect movement of the object with respect to the outer surface: of the input device; and a force control module implemented at least partially in hardware, the force control module configured to determine that the amount of force applied by the object to the outer surface is above a predefined first threshold and at or above a predefined second threshold, the computer based system being characterised in that the force control module is further configured to calculate a force signature as a waveform based on the detected amount of force from the at least one force sensor, to record a first time at which the amount of force applied by the object to the outer surface is above the predefined first threshold and to record a second time at which the amount of force applied by the object to the outer surface is at or above the predefined second threshold, to calculate a slope of the waveform between the first time and the second time, and to control the cursor such that the cursor is held stationary relative to movement of the object responsive to a determination that a change in the amount of force applied by the object to the outer surface is above the predefined first threshold and at or above the predefined second threshold and the slope of the waveform meets a minimum threshold. at least one force sensor configured to detect an amount of force applied by an object to an outer surface of an input device; one or more position sensors configured to detect movement of the object with respect to the outer surface: of the input device; and a force control module implemented at least partially in hardware, the force control module configured to determine that the amount of force applied by the object to the outer surface is above a predefined first threshold and at or above a predefined second threshold,
A magnetic material, wherein an internal structure is phase-separated into at least a first phase and a second phase, the first phase-includes a compound having a perovskite structure, the perovskite structure includes a distorted perovskite type and an inverse perovskite type, the magnetic material is expressed by a compositional formula (Mn a Sn b X c) 100-d N d in which a + b + c = 100, 30 ≤ a ≤ 90, 5 ≤ b ≤ 35, 0 ≤ c ≤ 35, and 10 ≤ d, the element X is at least one kind selected from the group consisting of Co, Fe, Cr, Nb, Ga, Cu, V, Ni, Zr, Ti, Zn, and A1, the first phase includes at least Mn 4 N or Mn 3 SnN, the second phase includes at least β-Mn or α-Mn, the magnetic material contains Mn, Sn, and N as a constituent element to construct an inner structure, and at least a part of elements constituting Mn 4 N or Mn 3 SnN which is included in the first phase is substituted with at least one or more elements among Co, Fe, Cr, Nb, Ga, Cu, V, Ni, Zr, Ti, Zn, and A1.
Cooking device comprising at least one hob having at least one hot plate and at least one heating device provided for heating at least one cooking region, and at least one sensor device for detecting at least one physical variable which characterises a state of the cooking region, the sensor device comprising at least one sensor unit intended to detect thermal radiation in a contactless manner, characterised in that at least one filter device which is connected to at least part of the sensor device in a thermally conducting manner is provided, the filter device being designed and suitable for reflecting and transmitting electromagnetic radiation based on wavelength, and at least one connecting means being provided which is adhesive at least in part and is designed and suitable for connecting the filter device at least in part to at least part of the sensor device in a thermally conducting manner.
A sensor element, wherein the sensor element is an optical sensor configured to sense physiological conditions, the sensor element comprising: a light source configured to emit light to the exterior of the sensor element, and a light detector configured to detect light that enters the sensor element, characterized in that the sensor element comprises walls surrounding the light source and the light detector, and a window element (307, 707, 808, 809, 907) in contact with the walls, wherein the window element covers and protects the light source and the light detector, wherein the window element comprises a plurality of adjacent optical fibers (309, 409, 419, 429). a light source configured to emit light to the exterior of the sensor element, and a light detector configured to detect light that enters the sensor element, characterized in that the sensor element comprises walls surrounding the light source and the light detector, and a window element (307, 707, 808, 809, 907) in contact with the walls, wherein the window element covers and protects the light source and the light detector, wherein the window element comprises a plurality of adjacent optical fibers (309, 409, 419, 429).
An electrical supplied oven comprising: - a cooking cavity; - an electric heating circuit associated with the cooking cavity and comprising a plurality of electric resistances (4, 5, 6, 7), configured to heat the cooking cavity when supplied by electric current, and a plurality of switches configured for selectively isolating one or more resistances (4, 5, 6, 7) from the electric heating circuit; - a first switch configured for selectively coupling each other a first and a second electric resistance (4, 5) of the electric heating circuit in series or in parallel; - a control unit configured for controlling the switches according to a plurality of different selectable cooking programs (A-I); characterized in that the control unit is configured for performing a first cooking program, wherein only the first and the second resistance are supplied, the first switch is in a configuration for coupling each other in series the first and the second electric resistance (4, 5) and wherein the other switches are controlled so as not to supply the remaining resistances (6, 7); wherein the electric heating circuit is configured so that, during the execution of the first cooking program, the ratio between the generated thermal power in KW and a factor dividing in dm3, depending on the volume of the cooking cavity, is comprised between a lower threshold value and an upper threshold value; the threshold values are: 0,5 ≤ P ̇ S 0,0042 ∗ V + 0,55 ≤ 1,5 wherein Ṗ S indicates the electricity supplied in KW and V indicates the volume of the cooking cavity in dm 3. - a cooking cavity; - an electric heating circuit associated with the cooking cavity and comprising a plurality of electric resistances (4, 5, 6, 7), configured to heat the cooking cavity when supplied by electric current, and a plurality of switches configured for selectively isolating one or more resistances (4, 5, 6, 7) from the electric heating circuit; - a first switch configured for selectively coupling each other a first and a second electric resistance (4, 5) of the electric heating circuit in series or in parallel; - a control unit configured for controlling the switches according to a plurality of different selectable cooking programs (A-I); the control unit is configured for performing a first cooking program, wherein only the first and the second resistance are supplied, the first switch is in a configuration for coupling each other in series the first and the second electric resistance (4, 5) and wherein the other switches are controlled so as not to supply the remaining resistances (6, 7); wherein the electric heating circuit is configured so that, during the execution of the first cooking program, the ratio between the generated thermal power in KW and a factor dividing in dm3, depending on the volume of the cooking cavity, is comprised between a lower threshold value and an upper threshold value; the threshold values are: 0,5 ≤ P ̇ S 0,0042 ∗ V + 0,55 ≤ 1,5 wherein Ṗ S indicates the electricity supplied in KW and V indicates the volume of the cooking cavity in dm 3.
A method for determining a parameter of a pharmaceutical compound against a disease or disorder, comprising the steps of: - providing a non-human animal which is not suffering from or is not showing symptoms or signs of said disease or disorder and which does not provoke an immune response against said pharmaceutical compound, whereby the animal is obtainable by administration of a peptide comprising an oxidoreductase motif with the sequence -x-x-C [SEQ ID NO: 8] or -x-x- [SEQ ID NO: 9] and further comprising an NKT peptide epitope or an MCH class II T cell epitope of said pharmaceutical compound, wherein said motif and said epitope are separated by a linker of between 0 and 4 amino acids, - administering said pharmaceutical compound to the non-human animal, - measuring a parameter of said pharmaceutical compound in the non-human animal. - providing a non-human animal which is not suffering from or is not showing symptoms or signs of said disease or disorder and which does not provoke an immune response against said pharmaceutical compound, whereby the animal is obtainable by administration of a peptide comprising an oxidoreductase motif with the sequence -x-x-C [SEQ ID NO: 8] or -x-x- [SEQ ID NO: 9] and further comprising an NKT peptide epitope or an MCH class II T cell epitope of said pharmaceutical compound, wherein said motif and said epitope are separated by a linker of between 0 and 4 amino acids, - administering said pharmaceutical compound to the non-human animal, - measuring a parameter of said pharmaceutical compound in the non-human animal.
A dry cleaning device configured to perform cleaning by generating a rotational air current inside a housing having an opening, and by colliding a cleaning media with a to-be-cleaned object that is circumscribing the opening while the cleaning media is flown by the rotational air current, the dry cleaning device comprising: a first cleaning unit that is disposed on a first surface of the to-be-cleaned object; and a second cleaning unit disposed on a second surface of the to-be-cleaned object, so that the first opening and the second opening are facing each other, wherein the housing (34, 36) of each of the first and second cleaning units includes: an airflow channel that intakes air from outside the dry cleaning device into an internal space of the housing; an outlet port that generates the rotational air current in the internal space by suctioning the air that has been introduced into the internal space through the airflow channel; a plate having plural holes for allowing a removed material that is removed from the to-be-cleaned object to pass therethrough to an outlet port side and wherein the cleaning is performed from both surfaces of the to-be-cleaned object. a first cleaning unit that is disposed on a first surface of the to-be-cleaned object; and a second cleaning unit disposed on a second surface of the to-be-cleaned object, so that the first opening and the second opening are facing each other, wherein the housing (34, 36) of each of the first and second cleaning units includes: an airflow channel that intakes air from outside the dry cleaning device into an internal space of the housing; an outlet port that generates the rotational air current in the internal space by suctioning the air that has been introduced into the internal space through the airflow channel; a plate having plural holes for allowing a removed material that is removed from the to-be-cleaned object to pass therethrough to an outlet port side and wherein the cleaning is performed from both surfaces of the to-be-cleaned object. an airflow channel that intakes air from outside the dry cleaning device into an internal space of the housing; an outlet port that generates the rotational air current in the internal space by suctioning the air that has been introduced into the internal space through the airflow channel; a plate having plural holes for allowing a removed material that is removed from the to-be-cleaned object to pass therethrough to an outlet port side and wherein the cleaning is performed from both surfaces of the to-be-cleaned object.