mhurhangee/ep-ind-claims huggingface dataset:
Injector for transcutaneous introduction of a sensor into a patient, having a cannula, a base element, a sliding element displaceably arranged on the base element for transcutaneous introduction of the cannula into the patient in an injection direction and having an ejection element for automatic withdrawal of the cannula from the patient in a direction opposite to the injection direction by means of the ejection element in an ejection operation, wherein the injector has a locking element for the ejection element, so that in a delivery state the ejection element is lockable in an energy-loaded state and the sliding element and the locking element are designed to indirectly or directly co-operate in order that, in an injection state in which the cannula has been transcutaneously introduced into the patient, the locking of the ejection element is released in order automatically to start the ejection operation, wherein the locking element is designed to be fixable on the base element in a fixing position and designed so as to be displaceable on the base element in a direction opposite to the injection direction in an ejection position, characterised in that the locking element is rotatably arranged on the base element and is designed so as to be displaceable from the fixing position to the ejection position by rotation of the locking element. the sliding element and the locking element are designed to indirectly or directly co-operate in order that, in an injection state in which the cannula has been transcutaneously introduced into the patient, the locking of the ejection element is released in order automatically to start the ejection operation, wherein the locking element is designed to be fixable on the base element in a fixing position and designed so as to be displaceable on the base element in a direction opposite to the injection direction in an ejection position, characterised in that the locking element is rotatably arranged on the base element and is designed so as to be displaceable from the fixing position to the ejection position by rotation of the locking element.
A method of processing a signal, the method comprising using a processor to: identify a past recurring pattern in a recurrence matrix, the recurrence matrix comprising an extension of an autocorrelation method in which each sample of an input signal time history can be referenced by its index such that the signal time history is retained, the identification comprising: constructing the recurrence matrix from an input signal; identifying the past recurring pattern in the recurrence matrix and determining indices of the recurring pattern, where the indices point to samples that constitute the recurring pattern in the input signal; and combine the signal and the recurring pattern whereby the recurring pattern produces a representation of a future signal; filter the combined signal and the recurring pattern. identify a past recurring pattern in a recurrence matrix, the recurrence matrix comprising an extension of an autocorrelation method in which each sample of an input signal time history can be referenced by its index such that the signal time history is retained, the identification comprising: constructing the recurrence matrix from an input signal; identifying the past recurring pattern in the recurrence matrix and determining indices of the recurring pattern, where the indices point to samples that constitute the recurring pattern in the input signal; and constructing the recurrence matrix from an input signal; identifying the past recurring pattern in the recurrence matrix and determining indices of the recurring pattern, where the indices point to samples that constitute the recurring pattern in the input signal; and combine the signal and the recurring pattern whereby the recurring pattern produces a representation of a future signal; filter the combined signal and the recurring pattern.
A rearview mirror assembly (110; 200; 310; 410; 510; 600; 700) for a vehicle comprising: front and rear elements each having front (112a; 114a) and rear surfaces (112b; 114b); a transparent first electrode including a layer of conductive material carried on a surface (112a; 112b; 114a; 114b) of one of said elements (112; 114); a second electrode carried on a surface of one of said elements (112; 114); an electrochromic material contained between said elements (112; 114) and having a variable transmissivity; a reflector carried on a surface (114a; 114b) of said rear element, wherein said second electrode is integrated with said reflector when said reflector is carried on the front surface of said rear element, at least a portion of said reflector is partially transmissive and partially reflective; and a light emitting display assembly (170; 220) mounted in a housing, said display assembly (170; 220) is mounted adjacent said rear surface of said rear element, characterized in that a region of said reflector in front of said display assembly (170; 220) exhibits a reflective gradient whereby the reflectivity of the reflector gradually decreases throughout at least a portion of the region in front of said display assembly (170; 220). front and rear elements each having front (112a; 114a) and rear surfaces (112b; 114b); a transparent first electrode including a layer of conductive material carried on a surface (112a; 112b; 114a; 114b) of one of said elements (112; 114); a second electrode carried on a surface of one of said elements (112; 114); an electrochromic material contained between said elements (112; 114) and having a variable transmissivity; a reflector carried on a surface (114a; 114b) of said rear element, wherein said second electrode is integrated with said reflector when said reflector is carried on the front surface of said rear element, at least a portion of said reflector is partially transmissive and partially reflective; and a light emitting display assembly (170; 220) mounted in a housing, said display assembly (170; 220) is mounted adjacent said rear surface of said rear element, characterized in that a region of said reflector in front of said display assembly (170; 220) exhibits a reflective gradient whereby the reflectivity of the reflector gradually decreases throughout at least a portion of the region in front of said display assembly (170; 220).
A buffer stopper comprising: a buffer body containing a rubber elastic body configured to be disposed between an end surface formed in a housing and an end surface formed in a shaft which is relatively movable in an axial direction with respect to the housing; and a wear resistant sheet which is provided so as to surround an outer peripheral surface of the buffer body and which can contact an inner peripheral surface of the housing by expansion and deformation in a radial direction of the buffer body; characterized in that the buffer stopper has a first metal ring configured to abut on the end surface formed in the housing, and a second metal ring configured to abut on the end surface formed in the shaft, wherein the buffer body is integrally provided between the metal rings (11, 12), and in that the wear resistant sheet contains cloth having elasticity. a buffer body containing a rubber elastic body configured to be disposed between an end surface formed in a housing and an end surface formed in a shaft which is relatively movable in an axial direction with respect to the housing; and a wear resistant sheet which is provided so as to surround an outer peripheral surface of the buffer body and which can contact an inner peripheral surface of the housing by expansion and deformation in a radial direction of the buffer body; characterized in that the buffer stopper has a first metal ring configured to abut on the end surface formed in the housing, and a second metal ring configured to abut on the end surface formed in the shaft, wherein a first metal ring configured to abut on the end surface formed in the housing, and a second metal ring configured to abut on the end surface formed in the shaft, wherein the buffer body is integrally provided between the metal rings (11, 12), and in that the wear resistant sheet contains cloth having elasticity.
Abase station (200, 300) configured to execute time division radio communication with a user terminal, using a time division duplex, TDD, system, wherein the base station is configured to transmit subframes in a radio frame, which is a radio communication resource used in the time division radio communication, and includes: a downlink subframe that is a transmission period of a downlink signal, a special subframe including a guard period that is used neither for transmission of a downlink signal nor for transmission of an uplink signal, and an extended subframe that is used as either a transmission period of a downlink signal or a transmission period of an uplink signal, in accordance with a scheduling by the base station, and the base station comprises a transmission/reception controller configured to execute scheduling of uplink communication and downlink communication in a first case by instructing uplink transmission in an extended subframe via sending either a downlink control signal in a downlink subframe prior to the extended subframe or via higher layer signalling, such that at the user terminal in the case in which uplink transmission in the extended subframe is instructed by way of receiving the downlink control signal in the downlink subframe prior to the extended subframe or by higher layer signalling from the base station (200, 300), uplink transmission is executed in the extended subframe; whereas the transmission/reception controller schedules downlink transmission in a second case in which no uplink transmission is instructed in the downlink control signal or in the higher layer signalling and in which a downlink control signal is included in the extended subframe. a downlink subframe that is a transmission period of a downlink signal, a special subframe including a guard period that is used neither for transmission of a downlink signal nor for transmission of an uplink signal, and an extended subframe that is used as either a transmission period of a downlink signal or a transmission period of an uplink signal, in accordance with a scheduling by the base station, and the base station comprises a transmission/reception controller configured to execute scheduling of uplink communication and downlink communication in a first case by instructing uplink transmission in an extended subframe via sending either a downlink control signal in a downlink subframe prior to the extended subframe or via higher layer signalling, such that at the user terminal in the case in which uplink transmission in the extended subframe is instructed by way of receiving the downlink control signal in the downlink subframe prior to the extended subframe or by higher layer signalling from the base station (200, 300), uplink transmission is executed in the extended subframe;
A vacuum cleaner including: - a suction nozzle assembly, the suction nozzle assembly having a suction nozzle and an extended tube connected to the suction nozzle, - a cleaner body, and - a suction nozzle hanging apparatus, wherein said suction nozzle hanging apparatus comprises: - a fixing part formed on the suction nozzle assembly; and - a counter fixing part formed on the cleaner body and joining with the fixing part to support the suction nozzle assembly on the cleaner body, wherein the fixing part is disposed to be rotatable on a longitudinal axis substantially parallel to the extended tube, wherein the fixing part comprises: - a sleeve disposed to be rotatable on a longitudinal axis of one of a joining connector of the suction nozzle and a counter joining connector of the extended tube, the sleeve being disposed on an outer circumferential surface thereof, and - a bent protrusion formed on an outer circumferential surface of the sleeve and projected and bent downward from the sleeve, characterised in that first and second annular bulges (13, 14) are circumferentially formed on the outer circumferential surface of the joining connector of the suction nozzle, and in that an annular guide recess is formed on an inner circumferential surface of the sleeve to accommodate the first and second annular bulges (13, 14) and engage therewith. - a suction nozzle assembly, the suction nozzle assembly having a suction nozzle and an extended tube connected to the suction nozzle, - a cleaner body, and - a suction nozzle hanging apparatus, wherein said suction nozzle hanging apparatus comprises: - a fixing part formed on the suction nozzle assembly; and - a counter fixing part formed on the cleaner body and joining with the fixing part to support the suction nozzle assembly on the cleaner body, wherein the fixing part is disposed to be rotatable on a longitudinal axis substantially parallel to the extended tube, wherein the fixing part comprises: - a sleeve disposed to be rotatable on a longitudinal axis of one of a joining connector of the suction nozzle and a counter joining connector of the extended tube, the sleeve being disposed on an outer circumferential surface thereof, and - a bent protrusion formed on an outer circumferential surface of the sleeve and projected and bent downward from the sleeve, characterised in that first and second annular bulges (13, 14) are circumferentially formed on the outer circumferential surface of the joining connector of the suction nozzle, and in that an annular guide recess is formed on an inner circumferential surface of the sleeve to accommodate the first and second annular bulges (13, 14) and engage therewith.
A method comprising: applying a signal in a current mode or in a voltage mode in a manner so as to transition a phase change memory cell to a particular state, wherein, in the current mode, said signal comprises a current signal comprising a decreasing current ramp after the phase change memory cell enters a melting phase, and wherein, in the voltage mode, said signal comprises a voltage signal comprising a decreasing voltage ramp after the phase change memory cell enters a melting phase; and applying a second signal to program the phase change memory cell to a particular state after applying said signal in the current mode or in the voltage mode; wherein, when said signal has been applied in the voltage mode, said second signal comprises a current signal, and wherein said current signal comprises a decreasing current ramp after the phase change memory cell enters the melting phase; and wherein, when said signal has been applied in the current mode, said second signal comprises a voltage signal, and wherein said voltage signal comprises a decreasing voltage ramp after the phase change memory cell enters the melting phase, and wherein application of the signal in the current mode or in the voltage mode did not successfully program the phase change memory cell. applying a signal in a current mode or in a voltage mode in a manner so as to transition a phase change memory cell to a particular state, wherein, in the current mode, said signal comprises a current signal comprising a decreasing current ramp after the phase change memory cell enters a melting phase, and wherein, in the voltage mode, said signal comprises a voltage signal comprising a decreasing voltage ramp after the phase change memory cell enters a melting phase; and applying a second signal to program the phase change memory cell to a particular state after applying said signal in the current mode or in the voltage mode; wherein, when said signal has been applied in the voltage mode, said second signal comprises a current signal, and wherein said current signal comprises a decreasing current ramp after the phase change memory cell enters the melting phase; and wherein, when said signal has been applied in the current mode, said second signal comprises a voltage signal, and wherein said voltage signal comprises a decreasing voltage ramp after the phase change memory cell enters the melting phase, and wherein application of the signal in the current mode or in the voltage mode did not successfully program the phase change memory cell.
Microfluidic component used for measuring electrical impedance across a biological object, said component comprising: - a microfluidic space comprising a zone referred to as measurement zone, - at least two electrodes (40, 41) arranged facing one another on each side of the measurement zone, - the component being formed by assembling, along a longitudinal junction plane, at least two superposed layers referred to as lower layer and upper layer, - the two layers each having at least one cavity (30, 50), - the two layers being assembled with one another in such a way as to position the two cavities facing one another in order to form said microfluidic space, - characterized in that: - the two cavities (30, 50) have cross sections of different sizes, forming two clearance surfaces, one on each side of said microfluidic space, - two electrically conducting deposits are applied to said two clearance surfaces so as to form said two electrodes (40, 41). - a microfluidic space comprising a zone referred to as measurement zone, - at least two electrodes (40, 41) arranged facing one another on each side of the measurement zone, - the component being formed by assembling, along a longitudinal junction plane, at least two superposed layers referred to as lower layer and upper layer, - the two layers each having at least one cavity (30, 50), - the two layers being assembled with one another in such a way as to position the two cavities facing one another in order to form said microfluidic space, - characterized in that: - the two cavities (30, 50) have cross sections of different sizes, forming two clearance surfaces, one on each side of said microfluidic space, - two electrically conducting deposits are applied to said two clearance surfaces so as to form said two electrodes (40, 41). - the two cavities (30, 50) have cross sections of different sizes, forming two clearance surfaces, one on each side of said microfluidic space, - two electrically conducting deposits are applied to said two clearance surfaces so as to form said two electrodes (40, 41).
A crystal form I of SCO-101: exhibiting at least peak maxima at 2 Theta angles: 19.0±0.2, 21.2±0.2, and 23.4±0.2 in an X-ray powder diffraction (XRPD) diffractogram when measured using Cu K α radiation; optionally wherein the crystal form I exhibits at least peak maxima at 2 Theta angles: 13.9±0.2, 19.0±0.2, 19.9±0.2, and 21.2±0.2 in an X-ray powder diffraction (XRPD) diffractogram when measured using Cu K α radiation, for example wherein the crystal form I exhibits at least peak maxima at 2 Theta angles: 12.0±0.2, 13.9±0.2, 19.0±0.2, 19.9±0.2, 20.4±0.2, 21.2±0.2, 23.2±0.2, 23.4±0.2, 26.9±0.2, and 27.4±0.2 in an X-ray powder diffraction (XRPD) diffractogram when measured using Cu K α radiation.
A ceramic paste composition comprising carbon nanotubes or a carbon nanotube-metal composite, and a silicone adhesive, wherein the silicone adhesive includes 0.1 to 10 wt% of a silanol group, based on 100 wt% of the total silicone adhesive, and has a mole ratio of a phenyl group to a methyl group of 0.3 to 2.5.
A method of wireless communication at a receiver for amplifying an ultra-wideband, UWB, input signal having a defined bandwidth, comprising: coupling a plurality of super regenerative amplifiers in parallel; tuning the super regenerative amplifiers to respective distinct frequency bands; determining whether a jamming signal is present in any of the distinct frequency bands; and disabling one or more super regenerative amplifiers pertaining respectively to one or more distinct frequency bands in which one or more jamming signals are present; wherein each of the plurality of super regenerative amplifiers is configured to amplify signals only within a small frequency band within the defined bandwidth of the UWB input signal, such that the effect of disabling one super regenerative amplifier is negligible on the amplified UWB input signal. coupling a plurality of super regenerative amplifiers in parallel; tuning the super regenerative amplifiers to respective distinct frequency bands; determining whether a jamming signal is present in any of the distinct frequency bands; and disabling one or more super regenerative amplifiers pertaining respectively to one or more distinct frequency bands in which one or more jamming signals are present; wherein each of the plurality of super regenerative amplifiers is configured to amplify signals only within a small frequency band within the defined bandwidth of the UWB input signal, such that the effect of disabling one super regenerative amplifier is negligible on the amplified UWB input signal.
A dryer stand comprising: a base; a receptacle having a space in which a dryer for discharging drying air is detachably mounted, and configured to be tiltable with respect to the vertical direction of the dryer stand; and a body which is disposed above the base, and includes an upper body disposed adjacent to an upper side of the receptacle, and a side body (31, 32) which is disposed between the upper body and the base and supports the upper body; a tilting pin which extends outward from an outer surface of the receptacle and defining the tilting axis of the receptacle; and a pin mount (341, 342) having an insertion hole into which the tilting pin is rotatably inserted, wherein the pin mount (341, 342) comprises: an upper mount having one side coupled to the upper body; and a lower mount which is opposite to the upper mount with respect to the tilting pin and detachably coupled the upper mount thereby forming the insertion hole between the upper mount and the lower mount. a base; a receptacle having a space in which a dryer for discharging drying air is detachably mounted, and configured to be tiltable with respect to the vertical direction of the dryer stand; and a body which is disposed above the base, and includes an upper body disposed adjacent to an upper side of the receptacle, and a side body (31, 32) which is disposed between the upper body and the base and supports the upper body; a tilting pin which extends outward from an outer surface of the receptacle and defining the tilting axis of the receptacle; and a pin mount (341, 342) having an insertion hole into which the tilting pin is rotatably inserted, wherein the pin mount (341, 342) comprises: an upper mount having one side coupled to the upper body; and a lower mount which is opposite to the upper mount with respect to the tilting pin and detachably coupled the upper mount thereby forming the insertion hole between the upper mount and the lower mount. an upper mount having one side coupled to the upper body; and a lower mount which is opposite to the upper mount with respect to the tilting pin and detachably coupled the upper mount thereby forming the insertion hole between the upper mount and the lower mount.
Metal shingle with a visible or front side, a rear side, a first side edge, a second side edge parallel to the first side edge, a third and a fourth side edge (22, 24) which are arranged between the first and second side edge (18, 20), a first fold on the first side edge at which a first edge strip is bent over, a second fold on the second side edge at which a second edge strip is bent over, a third fold on the third side edge at which a third edge strip is bent over, and a fourth fold on the fourth side edge at which a fourth edge strip is bent over, wherein the bent-over first edge strip is provided with a cutout which opens towards a boundary edge of the first edge strip, and wherein the bent-over first edge strip has, on both sides of the cutout, different angles of inclination with respect to the rear side, characterized in that the first edge strip provided with the cutout and the third edge strip are bent over to the rear over the rear side, in that the second edge strip and the fourth edge strip are bent over to the front over the visible or front side, and in that the centre spacing of the cutout from the third side edge is somewhat larger than the width of the fourth edge strip.