mhurhangee/ep-ind-claims huggingface dataset:
A filter device having a filter housing which accommodates at least one filter element having an inner filter cavity surrounded by a filter medium, there being within the housing an element retainer that interacts with the filter element when the latter is in the functional position, the element retainer having a projecting retaining part the outer form of which is matched to the shape of an opening which is located at the end of the respective filter element that is to be secured to the element retainer such that the retaining part fits through the opening of the filter element when the latter is in the functional position, characterised in that the retaining part is in the form of a spike and the filter element has a retaining space in the manner of a dome, that the spike and the retaining space respectively have planar surface parts and that these planar surface parts of the spike converge towards one end in a way that corresponds to the taper of the retaining space so that when the spike is accommodated within the retaining space inner surfaces of the dome fit against the planar surface parts of the spike.
A human body back-scattering inspection system comprising: a flying-spot forming unit configured to output beams of X-rays; a plurality of discrete detectors; and a controlling unit coupled to the flying-spot forming unit and the plurality of detectors; characterized in that the plurality of detectors are arranged sequentially in a direction of a height of a human body to be inspected and corresponding to a plurality of parts of the human body, respectively, wherein the plurality of parts are obtained by dividing the human body in the direction of the height of the human body, and the controlling unit is configured to generate a control signal to control the flying-spot forming unit to generate a plurality of beams of X-rays towards the plurality of parts of the human body, respectively, for scanning the plurality of parts of the human body synchronously, and the plurality of detectors to receive a plurality of reflected beams of X-rays from the plurality of parts of the human body, respectively. a flying-spot forming unit configured to output beams of X-rays; a plurality of discrete detectors; and a controlling unit coupled to the flying-spot forming unit and the plurality of detectors; characterized in that the plurality of detectors are arranged sequentially in a direction of a height of a human body to be inspected and corresponding to a plurality of parts of the human body, respectively, wherein the plurality of parts are obtained by dividing the human body in the direction of the height of the human body, and the controlling unit is configured to generate a control signal to control the flying-spot forming unit to generate a plurality of beams of X-rays towards the plurality of parts of the human body, respectively, for scanning the plurality of parts of the human body synchronously, and the plurality of detectors to receive a plurality of reflected beams of X-rays from the plurality of parts of the human body, respectively. the flying-spot forming unit to generate a plurality of beams of X-rays towards the plurality of parts of the human body, respectively, for scanning the plurality of parts of the human body synchronously, and the plurality of detectors to receive a plurality of reflected beams of X-rays from the plurality of parts of the human body, respectively.
A compression molding assembly for molding a honeycomb core of a blocker door, wherein the honeycomb core comprises a plurality of cells defined by a plurality of walls, said compression molding assembly comprising: a ram plate comprising a plurality of openings defined therethrough; and characterised by a plurality of core inserts coupled to said ram plate and configured to form the honeycomb core of the blocker door, wherein each said core insert is removably coupled with a respective opening of said plurality of openings such that each core insert is configured to form a respective cell of the plurality of cells. a ram plate comprising a plurality of openings defined therethrough; and characterised by a plurality of core inserts coupled to said ram plate and configured to form the honeycomb core of the blocker door, wherein each said core insert is removably coupled with a respective opening of said plurality of openings such that each core insert is configured to form a respective cell of the plurality of cells.
A method for determining whether to allow user access based on a user input at electronic device, the method comprising: detecting a touch by an object on a touch-sensitive area of an electronic device, in which a plurality of electrode pairs are mounted, the plurality of electrode pairs including a first set of electrode pairs and a second set of electrode pairs; determining a subset of the first set of electrode pairs that are in contact with a part of the object; receiving electrical signals from each pair of the determined subset; calculating impedance values of respective parts of the object based on the received electrical signals; determining a ratio of the calculated impedance values for each pair of electrode pairs disposed on mutually perpendicular lines from the determined subset, and, if a first impedance value for one electrode pair included in electrode pairs disposed on mutually perpendicular lines is greater than a second impedance value for the other electrode pair in the electrode pairs, the ratio of the calculated impedance values is a ratio of the first impedance value to the second impedance value; selecting two pairs of electrode pairs disposed on mutually perpendicular lines with a maximum ratio of the calculated impedance values; and if the maximum ratio exceeds a predetermined threshold, identifying the object as a living tissue object, and allow access on the electronic device. detecting a touch by an object on a touch-sensitive area of an electronic device, in which a plurality of electrode pairs are mounted, the plurality of electrode pairs including a first set of electrode pairs and a second set of electrode pairs; determining a subset of the first set of electrode pairs that are in contact with a part of the object; receiving electrical signals from each pair of the determined subset; calculating impedance values of respective parts of the object based on the received electrical signals; determining a ratio of the calculated impedance values for each pair of electrode pairs disposed on mutually perpendicular lines from the determined subset, and, if a first impedance value for one electrode pair included in electrode pairs disposed on mutually perpendicular lines is greater than a second impedance value for the other electrode pair in the electrode pairs, the ratio of the calculated impedance values is a ratio of the first impedance value to the second impedance value; selecting two pairs of electrode pairs disposed on mutually perpendicular lines with a maximum ratio of the calculated impedance values; and if the maximum ratio exceeds a predetermined threshold, identifying the object as a living tissue object, and allow access on the electronic device.
A percutaneous introducer sheath system (10, 100, 200) comprising: an outer layer circumferentially extending between a first longitudinal edge and a second longitudinal edge, an inner layer disposed within the outer layer, the inner layer configured to be continuously circumferentially expandable, the inner layer including a non-extended state having a circumferential portion extending circumferentially inside the outer layer and a fold portion extending into an interior cavity of the inner layer, and inner layer including an extended state wherein the fold portion extends at least partially circumferentially between the first and second longitudinal edges (56, 58). an outer layer circumferentially extending between a first longitudinal edge and a second longitudinal edge, an inner layer disposed within the outer layer, the inner layer configured to be continuously circumferentially expandable, the inner layer including a non-extended state having a circumferential portion extending circumferentially inside the outer layer and a fold portion extending into an interior cavity of the inner layer, and inner layer including an extended state wherein the fold portion extends at least partially circumferentially between the first and second longitudinal edges (56, 58).
A method of collecting reciprocal space X-ray diffraction data from a sample for providing morphological information about the sample, the method comprising: illuminating the sample with an X-ray source that emits a divergent X-ray beam having a substantially fixed width in a first direction and a thickness in a second direction perpendicular to the first direction that increases proportionally to a distance from the source, the source being positioned relative to the sample such that the beam illuminates a two-dimensional area of a surface of the sample; detecting, with an X-ray detector comprising a one-dimensional detector array, an X-ray signal diffracted from the sample across a one-dimensional detection area wherein the X-ray source and the detector each have a distance to the sample that is substantially equal; and repositioning at least one of the source and detector with a positioning mechanism so as to allow for collection of the diffracted X-ray signal by the detector at a plurality of relative angular positions of the source, detector and sample, the method being characterized in that said detected X-ray signal at each position is kept separated and assembled into a two-dimensional dataset indicative of X-ray intensities in said one-dimensional detection area for each of said relative angular positions. illuminating the sample with an X-ray source that emits a divergent X-ray beam having a substantially fixed width in a first direction and a thickness in a second direction perpendicular to the first direction that increases proportionally to a distance from the source, the source being positioned relative to the sample such that the beam illuminates a two-dimensional area of a surface of the sample; detecting, with an X-ray detector comprising a one-dimensional detector array, an X-ray signal diffracted from the sample across a one-dimensional detection area wherein the X-ray source and the detector each have a distance to the sample that is substantially equal; and repositioning at least one of the source and detector with a positioning mechanism so as to allow for collection of the diffracted X-ray signal by the detector at a plurality of relative angular positions of the source, detector and sample, the method being characterized in that said detected X-ray signal at each position is kept separated and assembled into a two-dimensional dataset indicative of X-ray intensities in said one-dimensional detection area for each of said relative angular positions.
A method of processing image data representing a scene for extracting features related to objects in the scene using a convolutional neural network, the method comprising: processing, by means of a respective one of two or more circuitries, two or more portions of the image data representing a respective one of two or more portions of the scene through a first number of layers of the convolutional neural network to form two or more outputs, wherein the two or more portions of the scene are partially overlapping, wherein each of the two or more portions of the image data includes image data representing an overlapping part of each neighbouring portions of the two or more portions of the scene; characterized by combining the two or more outputs to form a combined output by stitching the two or more outputs together and cropping image data relating to each overlapping part; and processing the combined output through a second number of layers of the convolutional neural network by means of one of the two or more circuitries for extracting features related to objects in the scene. processing, by means of a respective one of two or more circuitries, two or more portions of the image data representing a respective one of two or more portions of the scene through a first number of layers of the convolutional neural network to form two or more outputs, wherein the two or more portions of the scene are partially overlapping, wherein each of the two or more portions of the image data includes image data representing an overlapping part of each neighbouring portions of the two or more portions of the scene; characterized by combining the two or more outputs to form a combined output by stitching the two or more outputs together and cropping image data relating to each overlapping part; and processing the combined output through a second number of layers of the convolutional neural network by means of one of the two or more circuitries for extracting features related to objects in the scene.
A game apparatus including: • a housing; • a motion measurement arrangement at least partially located within the housing and comprising a multi-axis pivot member movable relative to the housing in at least two axes and a sensor arrangement for measuring multi-axis movement of the pivot member; and • a flexible tether having a free end coupled to a strikable object and a proximal end coupled to the pivot member; the motion measurement arrangement being configured to measure an indication of one or more parameters of the strikable object's motion upon striking of the strikable object by a user, characterised by the motion measurement arrangement further comprising a socket and the pivot member having a ball portion engaged with the socket in a ball and socket configuration, the sensor arrangement including a sensor spaced apart from the pivot member and configured for contactless movement measurement of the pivot member and the sensor being a multi-axis hall effect sensor and the sensor arrangement further including a magnet and wherein the sensor is configured to measure movement of the magnet, relative to the sensor. • a housing; • a motion measurement arrangement at least partially located within the housing and comprising a multi-axis pivot member movable relative to the housing in at least two axes and a sensor arrangement for measuring multi-axis movement of the pivot member; and • a flexible tether having a free end coupled to a strikable object and a proximal end coupled to the pivot member; the motion measurement arrangement being configured to measure an indication of one or more parameters of the strikable object's motion upon striking of the strikable object by a user, characterised by the motion measurement arrangement further comprising a socket and the pivot member having a ball portion engaged with the socket in a ball and socket configuration, the sensor arrangement including a sensor spaced apart from the pivot member and configured for contactless movement measurement of the pivot member and the sensor being a multi-axis hall effect sensor and the sensor arrangement further including a magnet and wherein the sensor is configured to measure movement of the magnet, relative to the sensor.
An image forming apparatus comprising: an image carrier configured to carry a toner image; a transfer unit configured to transfer a toner image held by the image carrier onto a sheet; and characterized by further comprising: a curled amount detector (80, 82) configured to repeatedly detect a curled amount of the sheet; and a controller configured to repeatedly control a relation of a position between the image carrier and the sheet so that once contact is made between the sheet and the image carrier the sheet continues to come into contact with the image carrier from a position where a distance from a transfer nip to a contact start position between the sheet and the image carrier is within a predetermined range when the sheet enters the transfer nip during an image forming job even when the curled amount of the sheet detected by the curled amount detector (80, 82) changes, wherein the transfer nip is formed by the image carrier and the transfer unit. an image carrier configured to carry a toner image; a transfer unit configured to transfer a toner image held by the image carrier onto a sheet; and characterized by further comprising: a curled amount detector (80, 82) configured to repeatedly detect a curled amount of the sheet; and a controller configured to repeatedly control a relation of a position between the image carrier and the sheet so that once contact is made between the sheet and the image carrier the sheet continues to come into contact with the image carrier from a position where a distance from a transfer nip to a contact start position between the sheet and the image carrier is within a predetermined range when the sheet enters the transfer nip during an image forming job even when the curled amount of the sheet detected by the curled amount detector (80, 82) changes, wherein the transfer nip is formed by the image carrier and the transfer unit. a curled amount detector (80, 82) configured to repeatedly detect a curled amount of the sheet; and a controller configured to repeatedly control a relation of a position between the image carrier and the sheet so that once contact is made between the sheet and the image carrier the sheet continues to come into contact with the image carrier from a position where a distance from a transfer nip to a contact start position between the sheet and the image carrier is within a predetermined range when the sheet enters the transfer nip during an image forming job even when the curled amount of the sheet detected by the curled amount detector (80, 82) changes, wherein the transfer nip is formed by the image carrier and the transfer unit.
A method of assessing whether a subject is afflicted with an FRα-expressing cancer, the method comprising determining the level of folate receptor alpha (FRα) which is not bound to a cell, in a urine sample derived from said subject; and comparing the level of folate receptor alpha (FRα) which is not bound to a cell with the level of FRα in a control sample, wherein a difference between the level of FRα in the urine sample derived from said subject and the level of FRα in the control sample is an indication that the subject is afflicted with an FRα-expressing cancer; wherein the level of FRα which is not bound to a cell in the urine sample derived from said subject is assessed by contacting the sample with an antibody that binds FRα.
Process for providing structures for an improved protein adherence on the surface of the body, said process comprising the steps of a) providing a basic body made of titanium or a titanium alloy, b) acid-etching the basic body, c) storing the acid-etched basic body in an aqueous solution for at least two days, whereby nanostructures are formed on the surface of the basic body, d) drying the basic body with the nanostructures formed on its surface, and e) storing the basic body in a dry environment for at least one day after the drying according to d). a) providing a basic body made of titanium or a titanium alloy, b) acid-etching the basic body, c) storing the acid-etched basic body in an aqueous solution for at least two days, whereby nanostructures are formed on the surface of the basic body, d) drying the basic body with the nanostructures formed on its surface, and e) storing the basic body in a dry environment for at least one day after the drying according to d).
A tablet or capsule formulated for sustained release of inorganic nitrite in the form of NaNO 2 or KNO 2 and consisting of 40 mg of inorganic nitrite and one or more pharmaceutically acceptable excipients, for use in a method of treating or reducing neuropathic pain, wherein said method consists of orally administering to a subject in need thereof said tablet or capsule twice a day for a duration sufficient to treat or reduce said neuropathic pain, wherein said subject does not have a condition associated with chronic ischemia.
A power configuration method performed by a terminal, characterized by comprising: determining a duty cycle of uplink resource; transmitting with high power when the duty cycle of uplink resource is less than a first duty cycle, wherein the high power is higher than a maximum transmitting power of a default power class; transmitting with low power when the duty cycle of uplink resource is greater than or equal to the first duty cycle, wherein the low power is not higher than the maximum transmitting power of the default power class; wherein transmitting with high power when the duty cycle of uplink resource is less than a first duty cycle, comprises: transmitting with high power when the duty cycle of uplink symbols transmitted or uplink slots transmitted is lower than the first duty cycle in a certain time period; or, transmitting with low power when the duty cycle of uplink resource is greater than or equal to the first duty cycle, comprises: transmitting with low power when the duty cycle of uplink symbols transmitted or uplink slots transmitted is higher than or equal to the first duty cycle in a certain time period. determining a duty cycle of uplink resource; transmitting with high power when the duty cycle of uplink resource is less than a first duty cycle, wherein the high power is higher than a maximum transmitting power of a default power class; transmitting with low power when the duty cycle of uplink resource is greater than or equal to the first duty cycle, wherein the low power is not higher than the maximum transmitting power of the default power class; wherein transmitting with high power when the duty cycle of uplink resource is less than a first duty cycle, comprises: transmitting with high power when the duty cycle of uplink symbols transmitted or uplink slots transmitted is lower than the first duty cycle in a certain time period; or, transmitting with low power when the duty cycle of uplink resource is greater than or equal to the first duty cycle, comprises: transmitting with low power when the duty cycle of uplink symbols transmitted or uplink slots transmitted is higher than or equal to the first duty cycle in a certain time period. transmitting with high power when the duty cycle of uplink symbols transmitted or uplink slots transmitted is lower than the first duty cycle in a certain time period; or, transmitting with low power when the duty cycle of uplink resource is greater than or equal to the first duty cycle, comprises: transmitting with low power when the duty cycle of uplink symbols transmitted or uplink slots transmitted is higher than or equal to the first duty cycle in a certain time period.