mhurhangee/patent-ind-claim-en huggingface dataset:
A method of heat treating an M.2 connector in a reflow oven , characterized in that the process comprises: dividing the M.2 connector into subassemblies, wherein said subassemblies comprises a first subassembly including an M.2 connector base and a printed circuit board upon which the M.2 connector base is mounted and a second subassembly including at least one latch ; heat treating the subassemblies in the reflow oven ; and, assembling the heat treated subassemblies into an M.2 connector after the heat treatment; wherein each of said subassemblies being of a size smaller than a limited clearance of the reflow oven in the vertical while the height of the assembled M.2 connector exceeds the limited clearance of the reflow oven. dividing the M.2 connector into subassemblies, wherein said subassemblies comprises a first subassembly including an M.2 connector base and a printed circuit board upon which the M.2 connector base is mounted and a second subassembly including at least one latch ; heat treating the subassemblies in the reflow oven ; and, assembling the heat treated subassemblies into an M.2 connector after the heat treatment; wherein each of said subassemblies being of a size smaller than a limited clearance of the reflow oven in the vertical while the height of the assembled M.2 connector exceeds the limited clearance of the reflow oven.
A suppressor for a firearm, comprising: a casing ; a plurality of baffles inside said casing ; a retainer (40; 64) releasably coupled to said casing downstream from said plurality of baffles , wherein said retainer (40; 64) has a downstream surface ; and a rear cap releasably coupled to said casing upstream from said plurality of baffles , wherein said rear cap has an upstream surface and a downstream surface ; characterized in that the suppressor further comprises: a downstream rear cap surface feature defined by said downstream surface of said rear cap that has a complementary shape to said downstream surface of said retainer (40; 64); wherein when said rear cap is removed from said casing , said downstream rear cap surface feature can engage with said downstream surface of said retainer (40; 64) to remove said retainer (40; 64) from said casing . a casing ; a plurality of baffles inside said casing ; a retainer (40; 64) releasably coupled to said casing downstream from said plurality of baffles , wherein said retainer (40; 64) has a downstream surface ; and a rear cap releasably coupled to said casing upstream from said plurality of baffles , wherein said rear cap has an upstream surface and a downstream surface ; characterized in that the suppressor further comprises: a downstream rear cap surface feature defined by said downstream surface of said rear cap that has a complementary shape to said downstream surface of said retainer (40; 64); wherein when said rear cap is removed from said casing , said downstream rear cap surface feature can engage with said downstream surface of said retainer (40; 64) to remove said retainer (40; 64) from said casing . a downstream rear cap surface feature defined by said downstream surface of said rear cap that has a complementary shape to said downstream surface of said retainer (40; 64); wherein when said rear cap is removed from said casing , said downstream rear cap surface feature can engage with said downstream surface of said retainer (40; 64) to remove said retainer (40; 64) from said casing .
A position pointer , comprising: a first electrode disposed so as to project from one end portion of a pen-shaped housing in an axial direction; a second electrode disposed in a proximity of the first electrode so as to surround a center axis of the pen-shaped housing ; a signal generation circuit which, in operation, generates a given signal; the signal generated by the signal generation circuit being capacitively coupled to a sensor provided in a position detection apparatus ; wherein the signal generation circuit , in operation, generates a signal of a first signal level when the position pointer is in a hover mode, in which the position pointer does not contact with the sensor's face, and a signal of a second signal level lower than the first signal level when the position pointer is in a position indication mode, in which the position pointer contacts with the sensor's face; a signal supply controlling circuit which, in operation, selectively supplies the signal of the first signal level and the signal of the second signal level generated by the signal generation circuit to the second electrode ; and a reception circuit which, in operation, receives an instruction signal transmitted from the position detection apparatus , wherein, when a mode of operation of the position pointer is changed from the position indication mode to the hover mode based on the instruction signal transmitted, the signal supply controlling circuit changes from supplying the signal of the second signal level to the first electrode to supplying the signal of the first signal level to the second electrode. a first electrode disposed so as to project from one end portion of a pen-shaped housing in an axial direction; a second electrode disposed in a proximity of the first electrode so as to surround a center axis of the pen-shaped housing ; a signal generation circuit which, in operation, generates a given signal; the signal generated by the signal generation circuit being capacitively coupled to a sensor provided in a position detection apparatus ; wherein the signal generation circuit , in operation, generates a signal of a first signal level when the position pointer is in a hover mode, in which the position pointer does not contact with the sensor's face, and a signal of a second signal level lower than the first signal level when the position pointer is in a position indication mode, in which the position pointer contacts with the sensor's face; a signal supply controlling circuit which, in operation, selectively supplies the signal of the first signal level and the signal of the second signal level generated by the signal generation circuit to the second electrode ; and a reception circuit which, in operation, receives an instruction signal transmitted from the position detection apparatus , wherein, when a mode of operation of the position pointer is changed from the position indication mode to the hover mode based on the instruction signal transmitted, the signal supply controlling circuit changes from supplying the signal of the second signal level to the first electrode to supplying the signal of the first signal level to the second electrode.
A set of panels comprising a first panel with a first main plane and a second panel with a second main plane, wherein the first and the second panel comprise a mechanical locking device which is configured for locking a first edge of the first panel to a second edge of the second panel at a junction plane (J) such that a first outer corner of the first panel and a second outer corner of the second panel contact one another when the first edge and the second edge are locked at the junction plane, wherein the first main plane is essentially perpendicular to the second main plane and the junction plane is extending between the first main plane and the second main plane, wherein the mechanical locking device comprises: at the first edge, an edge tongue which extends from the junction plane (J) and at the second edge, an edge groove at the junction plane, wherein the edge tongue is configured to cooperate with the edge groove for locking together the first and the second edges in a first direction (D1) which is perpendicular to the first main plane, characterized in that the mechanical locking device comprises a dowel at the first edge and a dowel groove at the second edge, that the dowel is configured to cooperate with the dowel groove , that a centreline of the dowel is positioned at a first distance in the first direction (D1) from the first outer corner of the first panel , that a centreline of the dowel groove is positioned at a second distance in the first direction (D1) from the second outer corner of the second panel , and that the second distance is greater than the first distance . at the first edge, an edge tongue which extends from the junction plane (J) and at the second edge, an edge groove at the junction plane, wherein the edge tongue is configured to cooperate with the edge groove for locking together the first and the second edges in a first direction (D1) which is perpendicular to the first main plane, characterized in that the mechanical locking device comprises a dowel at the first edge and a dowel groove at the second edge, that the dowel is configured to cooperate with the dowel groove , that a centreline of the dowel is positioned at a first distance in the first direction (D1) from the first outer corner of the first panel , that a centreline of the dowel groove is positioned at a second distance in the first direction (D1) from the second outer corner of the second panel , and that the second distance is greater than the first distance .
A display device, comprising: a display panel comprising a plurality of pixels; a back cover overlapping the display panel ; a roller configured to wind or unwind the back cover and the display panel , the roller includes at least one flat portion and a curved portion ; and a fixing member configured to fix the back cover to the roller , characterised in that the fixing member is disposed between the roller and the back cover on the at least one flat portion and a part of the curved portion . a display panel comprising a plurality of pixels; a back cover overlapping the display panel ; a roller configured to wind or unwind the back cover and the display panel , the roller includes at least one flat portion and a curved portion ; and a fixing member configured to fix the back cover to the roller , characterised in that the fixing member is disposed between the roller and the back cover on the at least one flat portion and a part of the curved portion .
A user terminal comprising a reception section configured to receive downlink control information for scheduling a transmission in an uplink shared channel, the uplink shared channel being scheduled using one of a first resource allocation scheme and a second resource allocation scheme depending on conditions, the first resource allocation scheme being a scheme in which resource blocks are allocated to the uplink shared channel, indicated by a bitmap, and the second resource allocation scheme being a scheme in which continuous resource blocks are allocated to the uplink shared channel, indicated by a starting resource block value and a number of allocated resource blocks; a control section configured to apply or not apply discrete Fourier transform precoding to the uplink shared channel based on a downlink control information format of the downlink control information; and a transmission section configured to transmit the uplink shared channel, characterized by : when the discrete Fourier transform precoding is applied to the uplink shared channel, the uplink shared channel is scheduled using the second resource allocation scheme and the control section uses a CAZAC sequence in generation of a demodulation reference signal, and when the discrete Fourier transform precoding is not applied to the uplink shared channel, the control section uses a Phase Shift Keying signal that is not a CAZAC sequence in generation of the demodulation reference signal. a reception section configured to receive downlink control information for scheduling a transmission in an uplink shared channel, the uplink shared channel being scheduled using one of a first resource allocation scheme and a second resource allocation scheme depending on conditions, the first resource allocation scheme being a scheme in which resource blocks are allocated to the uplink shared channel, indicated by a bitmap, and the second resource allocation scheme being a scheme in which continuous resource blocks are allocated to the uplink shared channel, indicated by a starting resource block value and a number of allocated resource blocks; a control section configured to apply or not apply discrete Fourier transform precoding to the uplink shared channel based on a downlink control information format of the downlink control information; and a transmission section configured to transmit the uplink shared channel, characterized by : when the discrete Fourier transform precoding is applied to the uplink shared channel, the uplink shared channel is scheduled using the second resource allocation scheme and the control section uses a CAZAC sequence in generation of a demodulation reference signal, and when the discrete Fourier transform precoding is not applied to the uplink shared channel, the control section uses a Phase Shift Keying signal that is not a CAZAC sequence in generation of the demodulation reference signal.
A battery pack comprising: a stack of a plurality of unit cells that have electrode tabs ; a plurality of busbars that have connection portions joined to the electrode tabs; a support member that supports the electrode tabs; and a busbar holder that retains the busbars, and is disposed so as to face the electrode tabs, the busbar holder having pressing parts that press the connection portions of the busbars toward the electrode tabs supported by the support member, deforming parts that urge the pressing parts with a force in a direction in which the pressing parts are caused to move toward the electrode tabs when the busbars come into contact with pressing surfaces of the pressing parts through contact surfaces of the busbars, and retaining parts that retain the busbars on the busbar holder, characterized in that the deforming parts have leg parts that extend so as to project in a direction away from the busbars, wherein the leg parts are formed in a U shape, and wherein the U shape of the deforming parts is disposed so as to approach further inward from the busbars than the retaining parts in a direction along the surfaces of the busbars which contact said pressing parts . a stack of a plurality of unit cells that have electrode tabs ; a plurality of busbars that have connection portions joined to the electrode tabs; a support member that supports the electrode tabs; and a busbar holder that retains the busbars, and is disposed so as to face the electrode tabs, the busbar holder having pressing parts that press the connection portions of the busbars toward the electrode tabs supported by the support member, deforming parts that urge the pressing parts with a force in a direction in which the pressing parts are caused to move toward the electrode tabs when the busbars come into contact with pressing surfaces of the pressing parts through contact surfaces of the busbars, and retaining parts that retain the busbars on the busbar holder, pressing parts that press the connection portions of the busbars toward the electrode tabs supported by the support member, deforming parts that urge the pressing parts with a force in a direction in which the pressing parts are caused to move toward the electrode tabs when the busbars come into contact with pressing surfaces of the pressing parts through contact surfaces of the busbars, and retaining parts that retain the busbars on the busbar holder, characterized in that the deforming parts have leg parts that extend so as to project in a direction away from the busbars, wherein the leg parts are formed in a U shape, and wherein the U shape of the deforming parts is disposed so as to approach further inward from the busbars than the retaining parts in a direction along the surfaces of the busbars which contact said pressing parts .
An electromagnetic wave detecting apparatus comprising: a plurality of detecting devices each of which is configured to detect a terahertz wave or a millimeter wave and to include an element having nonlinearity in current-voltage characteristics; a voltage applying device configured to periodically apply a bias voltage whose voltage value changes with time within a predetermined period to each of said plurality of detecting devices; an obtaining device configured to sample a detection signal outputted from each of said plurality of detecting devices and detect an intensity of the terahertz wave or millimeter wave; and a setting device configured to set a sampling timing at which the obtaining device samples the detection signal for each of said plurality of detecting devices, on the basis of the bias voltage, which is applied to each of said plurality of detecting devices during the predetermined period, and the detection signal outputted from each of said plurality of detecting devices during the predetermined period. a plurality of detecting devices each of which is configured to detect a terahertz wave or a millimeter wave and to include an element having nonlinearity in current-voltage characteristics; a voltage applying device configured to periodically apply a bias voltage whose voltage value changes with time within a predetermined period to each of said plurality of detecting devices; an obtaining device configured to sample a detection signal outputted from each of said plurality of detecting devices and detect an intensity of the terahertz wave or millimeter wave; and a setting device configured to set a sampling timing at which the obtaining device samples the detection signal for each of said plurality of detecting devices, on the basis of the bias voltage, which is applied to each of said plurality of detecting devices during the predetermined period, and the detection signal outputted from each of said plurality of detecting devices during the predetermined period.
A two-function tilting and turning roof window, with a tilting axis at the upper element of the window frame and a turning axis at the central part of the window sash , consisting of a window frame with a fixture on its side elements and a window sash set into it by means of intermediate arms , wherein the window is fitted at both sides with symmetrical self-locking systems, wherein each self-locking system has two sets of locking elements, which alternatively block one usage function when the second usage function is applied, and wherein both locking sets are interconnected by connecting means, which warrant their alternative function, characterized in that the symmetrical self-locking systems are configured such that: when the window is closed, the elements of locking sets are not locked together and no opening usage function is blocked thus the sash rests in the window frame and is ready to be used in its tilting or turning function; wherein a slight change of the position of the sash in the window frame due to tilting the sash automatically blocks at both sides the turning function, and a slight change of the position of the sash in the window frame due to turning the sash automatically blocks at both sides the tilting function. when the window is closed, the elements of locking sets are not locked together and no opening usage function is blocked thus the sash rests in the window frame and is ready to be used in its tilting or turning function; wherein a slight change of the position of the sash in the window frame due to tilting the sash automatically blocks at both sides the turning function, and a slight change of the position of the sash in the window frame due to turning the sash automatically blocks at both sides the tilting function.
Progressive die that allows to localize and control the stretching of the sheet steel during forming of a brake plate, said progressive die comprising: - a central punch that is fastened on a lower base of the die, in a way to be adjusted in height with shims; and - peripheral punches that are mounted on the lower base of the die, in a way to be individually adjusted in height with shims; characterized in that it comprises: - lateral punches that are mounted on the central punch in a way to be individually adjusted in height, with shims, regardless of the adjustment of the peripheral punches . - a central punch that is fastened on a lower base of the die, in a way to be adjusted in height with shims; and - peripheral punches that are mounted on the lower base of the die, in a way to be individually adjusted in height with shims; characterized in that it comprises: - lateral punches that are mounted on the central punch in a way to be individually adjusted in height, with shims, regardless of the adjustment of the peripheral punches . - lateral punches that are mounted on the central punch in a way to be individually adjusted in height, with shims, regardless of the adjustment of the peripheral punches .
An antenna arrangement for a transceiver arrangement , in particular for a high-frequency transceiver arrangement, having a transmit antenna group having a first transmit antenna , a second transmit antenna and a first balun , and a receive antenna group having a first receive antenna , a second receive antenna and a second balun , wherein the first transmit antenna and the second transmit antenna are connected in each case to a symmetric connection (As) of the first balun , and the first receive antenna und the second receive antenna are connected in each case to a symmetric connection (As) of the second balun , wherein an asymmetric connection (A A ) of the first balun is connectable to a transmit signal path (S) of the transceiver arrangement , and an asymmetric connection (A A ) of the second balun is connectable to a receive signal path (E) of the transceiver arrangement independent from the transmit signal path (S), and wherein the first transmit antenna , the second transmit antenna , the first receive antenna and the second receive antenna have a spatial position relative to one another such that crosstalk between the transmit antenna group and the receive antenna group is at least reduced by the differential connection of their respective antennas , wherein each of the receive antennas has the same center-to-center distance (D) to both transmit antennas .