mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a location of a target nucleic acid in a biological sample, the method comprising: (a) providing the biological sample placed on a first substrate; (b) contacting a plurality of first probes and second probes to the biological sample, wherein the plurality of first probes and second probes target a plurality of nucleic acids in the biological sample and wherein a first probe and a second probe of the plurality comprise sequences that are substantially complementary to sequences that are not adjacent to each other on the target nucleic acid, and wherein the second probe comprises a capture probe capture domain sequence that is complementary to all or a portion of a capture domain of a capture probe; (c) hybridizing the first probe and the second probe to the target nucleic acid; (d) generating a ligation product by ligating the first probe and the second probe; (e) releasing the ligation product from the target nucleic acid; (f) hybridizing the ligation product to the capture domain of the capture probe affixed on an array, wherein the capture probe further comprises a spatial barcode; and (g) determining (i) all or part of the sequence of the ligation product bound to the capture domain, or a complement thereof, and (ii) the sequence of the spatial barcode, or a complement thereof, and using the determined sequences of (i) and (ii) to determine the location of the target nucleic acid in the biological sample. (a) providing the biological sample placed on a first substrate; (b) contacting a plurality of first probes and second probes to the biological sample, wherein the plurality of first probes and second probes target a plurality of nucleic acids in the biological sample and wherein a first probe and a second probe of the plurality comprise sequences that are substantially complementary to sequences that are not adjacent to each other on the target nucleic acid, and wherein the second probe comprises a capture probe capture domain sequence that is complementary to all or a portion of a capture domain of a capture probe; (c) hybridizing the first probe and the second probe to the target nucleic acid; (d) generating a ligation product by ligating the first probe and the second probe; (e) releasing the ligation product from the target nucleic acid; (f) hybridizing the ligation product to the capture domain of the capture probe affixed on an array, wherein the capture probe further comprises a spatial barcode; and (g) determining (i) all or part of the sequence of the ligation product bound to the capture domain, or a complement thereof, and (ii) the sequence of the spatial barcode, or a complement thereof, and using the determined sequences of (i) and (ii) to determine the location of the target nucleic acid in the biological sample.
Composition comprising a) one or more compounds comprising an allylic hydrogen atom; b) an antioxidant system obtainable by an extraction method comprising the steps of i) contacting an apolar extractant with a combination of plant powders to prepare an extract, wherein the combination of plant powders comprises: ginger powder having a particle size of less than 800 μm, sage powder having a particle size of less than 500 μm, rosemary powder having a particle size of less than 500 μm, wherein the ginger powder, the sage powder, and the rosemary powder are present in a weight ratio of G: S: R = 1 to 4: 1 to 3: 1 to 3; and ii) optionally separating the extract from at least part of the residue of the plant powders. a) one or more compounds comprising an allylic hydrogen atom; b) an antioxidant system obtainable by an extraction method comprising the steps of i) contacting an apolar extractant with a combination of plant powders to prepare an extract, wherein the combination of plant powders comprises: ginger powder having a particle size of less than 800 μm, sage powder having a particle size of less than 500 μm, rosemary powder having a particle size of less than 500 μm, wherein the ginger powder, the sage powder, and the rosemary powder are present in a weight ratio of G: S: R = 1 to 4: 1 to 3: 1 to 3; and ii) optionally separating the extract from at least part of the residue of the plant powders. i) contacting an apolar extractant with a combination of plant powders to prepare an extract, wherein the combination of plant powders comprises: ginger powder having a particle size of less than 800 μm, sage powder having a particle size of less than 500 μm, rosemary powder having a particle size of less than 500 μm, wherein the ginger powder, the sage powder, and the rosemary powder are present in a weight ratio of G: S: R = 1 to 4: 1 to 3: 1 to 3; and ginger powder having a particle size of less than 800 μm, sage powder having a particle size of less than 500 μm, rosemary powder having a particle size of less than 500 μm, wherein the ginger powder, the sage powder, and the rosemary powder are present in a weight ratio of G: S: R = 1 to 4: 1 to 3: 1 to 3; and ii) optionally separating the extract from at least part of the residue of the plant powders.
A permanently magnetizable rotor having a central rotor structure including a rotor shaft supporting a cylindrical backiron, the rotor further including a multi-pole structure comprising circumferentially alternating pole elements, the rotor further comprising: an endcap including an engagement surface positioned in engagement with an end of the backiron, the endcap defining first and second anti-rotation features (34, 48); wherein the first anti-rotation feature is configured differently than the second anti-rotation feature and each anti-rotation feature (34, 48) defines a torque transmitting feature for transmitting a torque from different locations on the multi-pole structure; characterised in that the rotor further comprises a rotor cover extending longitudinally over the multi-pole structure; the first and second anti-rotation features (34, 48) prevent circumferential rotation of one or more of the pole elements about the backiron; and wherein the endcap includes a peripheral surface, and the first anti-rotation feature comprises discrete indentations extending into the peripheral surface and engaged by corresponding discrete portions of an end of the rotor cover that extend in a radial direction inwardly past the peripheral surface of the endcap. an endcap including an engagement surface positioned in engagement with an end of the backiron, the endcap defining first and second anti-rotation features (34, 48); wherein the first anti-rotation feature is configured differently than the second anti-rotation feature and each anti-rotation feature (34, 48) defines a torque transmitting feature for transmitting a torque from different locations on the multi-pole structure; characterised in that the rotor further comprises a rotor cover extending longitudinally over the multi-pole structure; the first and second anti-rotation features (34, 48) prevent circumferential rotation of one or more of the pole elements about the backiron; and wherein the endcap includes a peripheral surface, and the first anti-rotation feature comprises discrete indentations extending into the peripheral surface and engaged by corresponding discrete portions of an end of the rotor cover that extend in a radial direction inwardly past the peripheral surface of the endcap.
Method for assembling a part from the field of horology and made of hard material chosen from silicon, diamond or corundum on a support axle, comprising the following steps: i. providing an intermediate part made of soft material chosen from gold, nickel or copper-based alloys that is pierced with a hole and intended to be mounted rigidly on the said support axle, the said intermediate part defining, about the hole, a shoulder and a rim, ii. since the hard material part is pierced with an opening, fitting the said hard material part onto the rim of the intermediate part so as to bear on the shoulder, iii. deforming the intermediate part so as to axially and angularly secure the intermediate part and the hard material part, the said parts thus forming an assembly, iv. rigidly mounting the said assembly on the support axle, the said opening in the hard material part defining facets facing the rim of the intermediate part, the angles formed between two consecutive facets defining interstices between the hard material part and the soft material part, the step iii being carried out by thermal deformation of the intermediate part in such a way that it takes position at least partially in the interstices. i. providing an intermediate part made of soft material chosen from gold, nickel or copper-based alloys that is pierced with a hole and intended to be mounted rigidly on the said support axle, the said intermediate part defining, about the hole, a shoulder and a rim, ii. since the hard material part is pierced with an opening, fitting the said hard material part onto the rim of the intermediate part so as to bear on the shoulder, iii. deforming the intermediate part so as to axially and angularly secure the intermediate part and the hard material part, the said parts thus forming an assembly, iv. rigidly mounting the said assembly on the support axle, the said opening in the hard material part defining facets facing the rim of the intermediate part, the angles formed between two consecutive facets defining interstices between the hard material part and the soft material part, the step iii being carried out by thermal deformation of the intermediate part in such a way that it takes position at least partially in the interstices.
A method comprising: determining a direction of movement and a distance of movement of a display device ( 110, 210); determining a direction of movement and a distance of movement of a user of the display device ( 110, 210); determining compensation to apply to content displayed on the display device ( 110, 210) to compensate for movement of the user with respect to the display device (110, 210), the compensation being based on the direction of movement of the display device (110, 210), the distance of movement of the display device (110, 210), the direction of movement of the user, and the distance of movement of the user; and applying the compensation to the content displayed on the display device (110, 210). characterized by detecting a portion of the display device (110, 210) at which the user is looking, and taking corrective action if applying the compensation would result in the content in the portion of the display device (110, 210) at which the user is looking being positioned beyond the display device. determining a direction of movement and a distance of movement of a display device ( 110, 210); determining a direction of movement and a distance of movement of a user of the display device ( 110, 210); determining compensation to apply to content displayed on the display device ( 110, 210) to compensate for movement of the user with respect to the display device (110, 210), the compensation being based on the direction of movement of the display device (110, 210), the distance of movement of the display device (110, 210), the direction of movement of the user, and the distance of movement of the user; and applying the compensation to the content displayed on the display device (110, 210). characterized by detecting a portion of the display device (110, 210) at which the user is looking, and taking corrective action if applying the compensation would result in the content in the portion of the display device (110, 210) at which the user is looking being positioned beyond the display device.
A method of detecting fluid in a terminal block of a field device, wherein the field device receives power and communicates with a control room by way of a two-wire pair connected to first and second terminals (18a, 18b), respectively, which form a current loop, the method comprising: applying an initial AC test signal at a selected frequency to the first and second terminals (18a, 18b) located in the terminal block of the field device, the initial AC test signal is provided when no fluid is present within the terminal block; measuring an initial AC voltage magnitude in response to the initial AC test signal; applying a subsequent AC test signal at the selected frequency to the first and second terminals (18a, 8b); measuring a subsequent AC voltage magnitude generated in response to the subsequent AC test signal; and detecting a change in impedance that indicates the presence of fluid in the terminal block between the first and second terminals (18a, 18b) by comparing the initial AC voltage magnitude with the subsequent AC voltage magnitude. applying an initial AC test signal at a selected frequency to the first and second terminals (18a, 18b) located in the terminal block of the field device, the initial AC test signal is provided when no fluid is present within the terminal block; measuring an initial AC voltage magnitude in response to the initial AC test signal; applying a subsequent AC test signal at the selected frequency to the first and second terminals (18a, 8b); measuring a subsequent AC voltage magnitude generated in response to the subsequent AC test signal; and detecting a change in impedance that indicates the presence of fluid in the terminal block between the first and second terminals (18a, 18b) by comparing the initial AC voltage magnitude with the subsequent AC voltage magnitude.
A bicomponent extruded mesh comprising: a first layer of parallel strands running in a longitudinal direction; a second layer of parallel strands on one side of the first layer, the second layer's strands running in a transverse direction and comprising elastomeric strands; and a third layer of parallel strands on the opposite side of the second layer as the first layer and running in the same direction as those of the first layer, wherein the first, second, and third layers are co-extruded together such that the strands in the first layer are positioned or aligned within the space between strands in the third layer, wherein the first, second, and third layers form a structure having an initial thickness, characterized in that upon application of a compressive load normal to a surface of the bicomponent extruded mesh the second layer stretches to enable the strands of the first and third layers move towards each other to nest between each other in the same plane, and wherein upon release of the compressive load elasticity of the second layer causes the first and third layers to spring back returning the structure to the initial thickness, wherein the material for the strands of the first, second and third layer are selected such that the layers are bonded together as a result of the extrusion. a first layer of parallel strands running in a longitudinal direction; a second layer of parallel strands on one side of the first layer, the second layer's strands running in a transverse direction and comprising elastomeric strands; and a third layer of parallel strands on the opposite side of the second layer as the first layer and running in the same direction as those of the first layer, wherein the first, second, and third layers are co-extruded together such that the strands in the first layer are positioned or aligned within the space between strands in the third layer, wherein the first, second, and third layers form a structure having an initial thickness, characterized in that upon application of a compressive load normal to a surface of the bicomponent extruded mesh the second layer stretches to enable the strands of the first and third layers move towards each other to nest between each other in the same plane, and wherein upon release of the compressive load elasticity of the second layer causes the first and third layers to spring back returning the structure to the initial thickness, wherein the material for the strands of the first, second and third layer are selected such that the layers are bonded together as a result of the extrusion.
A prosthesis component comprising a substrate made of a polymeric material and a coating, said coating comprising titanium, and said coating comprising an anchoring layer in contact with the substrate and an outer surface layer comprising titanium, said coating further comprising a transition layer arranged between the anchoring layer and the outer surface layer, characterized in that said transition layer is made of a chromium and titanium alloy.
Control device for an induction cooker, the control device comprising: a driving circuit configured to controllably drive an induction coil of the induction cooker with a power signal, a controller coupled to the driving circuit and configured to control the driving circuit with a control signal to drive the induction coil with the power signal, and a first measurement device configured to measure a temperature of the induction coil and provide the measured temperature to the controller, characterised in that the controller is configured to determine the filling level of a cooking vessel based on the measured temperature. a driving circuit configured to controllably drive an induction coil of the induction cooker with a power signal, a controller coupled to the driving circuit and configured to control the driving circuit with a control signal to drive the induction coil with the power signal, and a first measurement device configured to measure a temperature of the induction coil and provide the measured temperature to the controller, characterised in that the controller is configured to determine the filling level of a cooking vessel based on the measured temperature.
Method for dimensioning a component of a brake system; wherein the brake system has at least two brake circuit partial-circuits (); wherein each brake circuit partial-circuit (A, B) has at least one pump element for building up a brake circuit pressure and/or for feeding back brake circuit fluid in an ABS situation; wherein the pump elements of the at least two brake circuit partial-circuits (A, B) can be operated using a motor element; and wherein the at least two brake circuit partial-circuits (A, B) can be disconnected using a disconnecting element, with the result that different brake circuit pressures can be formed in the at least two brake circuit partial-circuits (A,'B); having the steps determining a first defined working point of a first operating state of the brake circuit system, the working point being composed of a first torque and of a first rotational speed of the motor element in the first operating state; and determining a second defined working point of a second operating state of the brake circuit system, the working point being composed of a second torque and of a second rotational speed of the motor element in the second operating state; characterized by dimensioning the pump elements in such a way that in the second operating state a working point of the motor element () is set which is shifted from the second working point in the direction of the first working point, as a result of which there is a resulting increase in the delivery capacity of at least one of the pump elements at a third operating point.
A track link assembly comprising a track link body with at least one window opening for receiving a nut, a track shoe attached to the track link body by means of at least one screw, the nut comprising an internally threaded section for receiving the screw, a sensor arrangement comprising a sensor element attached to the track link body and electronic elements for operating the sensor arrangement, characterized in that the nut has an internal receiving space in which the electronic elements for operating the sensor arrangement are arranged. a track link body with at least one window opening for receiving a nut, a track shoe attached to the track link body by means of at least one screw, the nut comprising an internally threaded section for receiving the screw, a sensor arrangement comprising a sensor element attached to the track link body and electronic elements for operating the sensor arrangement, characterized in that the nut has an internal receiving space in which the electronic elements for operating the sensor arrangement are arranged.
A method for transmitting uplink control information by a user equipment, UE, in a wireless communication system supporting carrier aggregation, the UE being configured with a plurality of cells including a first cell and a second cell and configured to transmit a hybrid automatic repeat request-acknowledgment, HARQ-ACK, response, the first cell and the second cell having different uplink-downlink, UL-DL, configurations and operating in time division duplex, TDD, the method comprising: determining a value M as a largest value of M1 or M2; determining HARQ-ACK responses for the first cell and the second cell based on the value M; determining bit values and a physical uplink control channel, PUCCH, resource corresponding to the determined HARQ-ACK responses; and transmitting the bit values using the PUCCH resource in an uplink subframe, wherein M1 represents a number of downlink sub frames corresponding to the uplink subframe in the first cell and M2 represents a number of downlink subframes corresponding to the uplink subframe in the second cell. determining a value M as a largest value of M1 or M2; determining HARQ-ACK responses for the first cell and the second cell based on the value M; determining bit values and a physical uplink control channel, PUCCH, resource corresponding to the determined HARQ-ACK responses; and transmitting the bit values using the PUCCH resource in an uplink subframe, wherein M1 represents a number of downlink sub frames corresponding to the uplink subframe in the first cell and M2 represents a number of downlink subframes corresponding to the uplink subframe in the second cell.
A composition comprising an extract of Polygonum minus in effective amounts in combination with or without other agent wherein the other agent is pharmaceutical agent and wherein the extract comprises quercetin-3-glucuronide and quercitrin wherein the quercetin -3-glucuronide is in amounts of 0.5% by weight of the extract of Polygonum minus and the quercitrin is in amounts of 0.2% by weight of the extract of Polygonum minus for use in the treatment of deficits in learning and memory.