mhurhangee/ep-ind-claims huggingface dataset:
A payment terminal, comprising: a payment interface configured to interface with a payment device, wherein the payment interface comprises a contact interface, wherein the contact interface is configured to receive a chip card, wherein the contact interface includes an input/output line; a monitoring component coupled to the payment interface and configured to provide a monitoring signal, wherein the monitoring component is coupled to the input/output line; a chip card detection interface configured to provide a detection signal while the chip card is inserted at the contact interface; a processing unit configured to receive the monitoring signal from the monitoring component and determine electrical characteristics based on the monitoring signal, and wherein the processing unit is configured to take a first corrective action based on a comparison of the electrical characteristics and the detection signal to local test criteria; and a communication interface, wherein the processing unit is configured to generate a server request message based on the electrical characteristics and the detection signal, transmit the server request message via the communication interface, receive a fraud determination message via the communication interface, and determine whether to take a second corrective action based on the fraud determination message. a payment interface configured to interface with a payment device, wherein the payment interface comprises a contact interface, wherein the contact interface is configured to receive a chip card, wherein the contact interface includes an input/output line; a monitoring component coupled to the payment interface and configured to provide a monitoring signal, wherein the monitoring component is coupled to the input/output line; a chip card detection interface configured to provide a detection signal while the chip card is inserted at the contact interface; a processing unit configured to receive the monitoring signal from the monitoring component and determine electrical characteristics based on the monitoring signal, and wherein the processing unit is configured to take a first corrective action based on a comparison of the electrical characteristics and the detection signal to local test criteria; and a communication interface, wherein the processing unit is configured to generate a server request message based on the electrical characteristics and the detection signal, transmit the server request message via the communication interface, receive a fraud determination message via the communication interface, and determine whether to take a second corrective action based on the fraud determination message.
An apparatus for muscle stimulation, comprising a motor and a pair of motor-driven transmission units (30, 130) each comprising a frame (31; 131) and a stepping plate element (34; 134) mounted in said frame (31; 131), said transmission units (30; 130) interconnected by a drive shaft, - with each said transmission units (30; 130) constituting a 4-bar linkage capable of rotation, - with each driven transmission member comprising a crank (32; 132) mounted in the frame (31; 131) and a stepping plate element (34; 134), - each crank (32; 13) being articulated to a stepping plate element (34; 134) by means of a coupling member (33; 133), and - with the coupling member (33; 133) mounted in a mounting plate bearing (52; 152) by means of an excentric ring seated on the drive shaft and adjustable infinitely or in steps; characterized in that - the mounting arrangement of each stepping plate element (34; 134) in the frame (31; 131) comprises at least one resiliently deformable element (90; 190); - the stepping plate elements (34; 134) comprise stepping plates (81; 181) having a mutual distance smaller than two millimeters; and that, - with the apparatus in use, the user stands with one foot on one stepping plate. - with each said transmission units (30; 130) constituting a 4-bar linkage capable of rotation, - with each driven transmission member comprising a crank (32; 132) mounted in the frame (31; 131) and a stepping plate element (34; 134), - each crank (32; 13) being articulated to a stepping plate element (34; 134) by means of a coupling member (33; 133), and - with the coupling member (33; 133) mounted in a mounting plate bearing (52; 152) by means of an excentric ring seated on the drive shaft and adjustable infinitely or in steps; characterized in that - the mounting arrangement of each stepping plate element (34; 134) in the frame (31; 131) comprises at least one resiliently deformable element (90; 190); - the stepping plate elements (34; 134) comprise stepping plates (81; 181) having a mutual distance smaller than two millimeters; and that, - with the apparatus in use, the user stands with one foot on one stepping plate.
A method of regulating data flow in a wireless communication network, the method comprising: receiving, at a base station controller, data regarding dynamic loading of sector-carrier pairs in communication sectors of the wireless communication network, each sector-carrier pair representing a pilot; measuring, at the base station controller, data rates for data flows of the pilots to access terminals within the wireless communication network; determining, at the base station controller, one or more pilots to use for conveying data in the wireless communication network based on the data rates and the dynamic loading; and generating, at the base station controller, a topological spatial interference map representing pilot-to-pilot interference between pilots using a same channel; altering, at the base station controller, data flow over the pilots by changing a data rate over at least one of the pilots to increase total data flow by changing a combination of pilots used by the wireless communication network for conveying data to provide the highest cumulative data rate possible in the wireless communication network based on the topological spatial interference map. receiving, at a base station controller, data regarding dynamic loading of sector-carrier pairs in communication sectors of the wireless communication network, each sector-carrier pair representing a pilot; measuring, at the base station controller, data rates for data flows of the pilots to access terminals within the wireless communication network; determining, at the base station controller, one or more pilots to use for conveying data in the wireless communication network based on the data rates and the dynamic loading; and generating, at the base station controller, a topological spatial interference map representing pilot-to-pilot interference between pilots using a same channel; altering, at the base station controller, data flow over the pilots by changing a data rate over at least one of the pilots to increase total data flow by changing a combination of pilots used by the wireless communication network for conveying data to provide the highest cumulative data rate possible in the wireless communication network based on the topological spatial interference map.
An electric switch for electric transformers comprising: - a plurality of pins for the electric contact; - at least one supporting bar provided with a plurality of first through holes suitable to stably accommodate said pins, characterized in that said pins have on the outer surface and in correspondence to said first through holes a shaping which interacts with a counter-shaping realized on the inner surface of said first through holes so as to prevent the rotation and the sliding of said pins in said through holes. - a plurality of pins for the electric contact; - at least one supporting bar provided with a plurality of first through holes suitable to stably accommodate said pins,
An implantable medical lead, comprising: an elongated lead body extending from a proximal end to a distal end; a fixation member having a proximal end and a distal end, the proximal end of the fixation member configured to be electrically coupled to the distal end of the lead body, the fixation member comprising: a first delivery port and a second delivery port for releasing a therapeutic agent from the fixation member to tissue of a patient, wherein the first delivery port is positioned along the proximal end of the fixation member to deliver the therapeutic agent to endothelial cells along an endothelial layer of tissue, and the second delivery port is positioned along the distal end of the fixation member and spaced a distance from the first delivery port to deliver the therapeutic agent to myocardial tissue within a myocardial layer of the tissue, characterized in that there are no delivery ports positioned within the distance that the second delivery port is spaced from the first delivery port. an elongated lead body extending from a proximal end to a distal end; a fixation member having a proximal end and a distal end, the proximal end of the fixation member configured to be electrically coupled to the distal end of the lead body, the fixation member comprising: a first delivery port and a second delivery port for releasing a therapeutic agent from the fixation member to tissue of a patient, wherein the first delivery port is positioned along the proximal end of the fixation member to deliver the therapeutic agent to endothelial cells along an endothelial layer of tissue, and the second delivery port is positioned along the distal end of the fixation member and spaced a distance from the first delivery port to deliver the therapeutic agent to myocardial tissue within a myocardial layer of the tissue, characterized in that there are no delivery ports positioned within the distance that the second delivery port is spaced from the first delivery port.
An organic light emitting device (OLED), comprising: a first electrode; a second electrode provided to face the first electrode; at least one organic layer provided between the first electrode and the second electrode; and an auxiliary electrode electrically connected to the first electrode, wherein the first electrode includes at least two conductive units, and resistance between the different conductive units is 2,000 Ω or more and 600,000 Ω or less, and the auxiliary electrode includes at least two branch points each having at least three branches, and resistance between the adjacent branch points is 35 Ω or less, the organic light emitting device further comprises a short-circuit preventing portion provided between the conductive unit and the auxiliary electrode, wherein the conductive unit and the auxiliary electrode are electrically connected through the short-circuit preventing portion. a first electrode; a second electrode provided to face the first electrode; at least one organic layer provided between the first electrode and the second electrode; and an auxiliary electrode electrically connected to the first electrode, wherein the first electrode includes at least two conductive units, and resistance between the different conductive units is 2,000 Ω or more and 600,000 Ω or less, and the auxiliary electrode includes at least two branch points each having at least three branches, and resistance between the adjacent branch points is 35 Ω or less, the organic light emitting device further comprises a short-circuit preventing portion provided between the conductive unit and the auxiliary electrode, wherein the conductive unit and the auxiliary electrode are electrically connected through the short-circuit preventing portion.
A high-strength seamless stainless steel pipe for oil country tubular goods having a yield strength of 862 MPa or more, the high-strength seamless stainless steel pipe having a composition that comprises, in mass%, C:0.05% or less, Si: 0.5% or less, Mn: 0.15 to 1.0%, P:0.030% or less, S:0.005% or less, Cr: 14.5 to 17.5%, Ni: 3.0 to 6.0%, Mo: 3.0 to 5.0%, Cu: 0.3 to 4.0%, W:1.0 to 2.5%, V: 0.02 to 0.20%, Al: 0.10% or less, N: 0.15% or less, optionally at least one selected from Nb: 0.02 to 0.50%, Ti: 0.02 to 0.16%, Zr: 0.02 to 0.50%, and B: 0.0005 to 0.0030%, optionally at least one selected from REM: 0.001 to 0.05%, Ca: 0.001 to 0.005%, Sn: 0.05 to 0.20%, and Mg: 0.0002 to 0.01%, optionally at least one selected from Ta: 0.01 to 0.1%, Co: 0.01 to 1.0%, and Sb:0.01 to 1.0% and the balance being Fe and unavoidable impurities, wherein, as an unavoidable impurity, an O (oxygen) content of 0.01% or less is acceptable and in which the C, Si, Mn, Cr, Ni, Mo, Cu, and N satisfy the formula below, and the Cu, Mo, W, Cr, and Ni satisfy the formula below, the high-strength seamless stainless steel pipe having a structure consisting of more than 45% martensite phase by volume as a primary phase, and 10 to 45% ferrite phase and 30% or less retained austenite phase by volume as a secondary phase, wherein the total amount of precipitated Cr, precipitated Mo, and precipitated W is 0.75 mass% or less, − 5.9 × 7.82 + 27 C − 0.91 Si + 0.21 Mn − 0.9 Cr + Ni − 1.1 Mo + 0.2 Cu + 11 N ≥ 13.0 where C, Si, Mn, Cr, Ni, Mo, Cu, and N represent the contents of corresponding elements (mass%), respectively, Cu + Mo + W + Cr + 2 Ni ≤ 34.5 where Cu, Mo, W, Cr, and Ni represent the contents of corresponding elements (mass%), respectively, wherein the yield strength, the volume fraction of the martensite phase, the ferrite phase and the retained austenite phase and the total amount of precipitated Cr, precipitated Mo and precipitated W are determined in accordance with the specifics given in the description. the high-strength seamless stainless steel pipe having a structure consisting of more than 45% martensite phase by volume as a primary phase, and 10 to 45% ferrite phase and 30% or less retained austenite phase by volume as a secondary phase, wherein the total amount of precipitated Cr, precipitated Mo, and precipitated W is 0.75 mass% or less, − 5.9 × 7.82 + 27 C − 0.91 Si + 0.21 Mn − 0.9 Cr + Ni − 1.1 Mo + 0.2 Cu + 11 N ≥ 13.0 where C, Si, Mn, Cr, Ni, Mo, Cu, and N represent the contents of corresponding elements (mass%), respectively, Cu + Mo + W + Cr + 2 Ni ≤ 34.5 where Cu, Mo, W, Cr, and Ni represent the contents of corresponding elements (mass%), respectively,
A computer implemented image processing method, comprising: selecting a reference image from a plurality of sequentially captured images comprising selecting an image having a maximum sharpness value from the plurality of sequentially captured images as the reference image; selecting one or more first images from the remaining sequentially captured images based on a luminance value and a sharpness value of the reference image comprising selecting the one or more first images from the remaining sequentially captured images, the one or more first images having a luminance value predefined in a first preset range of the luminance value of the reference image, and the one or more first images having a sharpness value predefined in a second preset range of the sharpness value of the reference image; fusing the reference image and the one or more first images to obtain a second image; and performing noise reduction on the second image. selecting a reference image from a plurality of sequentially captured images comprising selecting an image having a maximum sharpness value from the plurality of sequentially captured images as the reference image; selecting one or more first images from the remaining sequentially captured images based on a luminance value and a sharpness value of the reference image comprising selecting the one or more first images from the remaining sequentially captured images, the one or more first images having a luminance value predefined in a first preset range of the luminance value of the reference image, and the one or more first images having a sharpness value predefined in a second preset range of the sharpness value of the reference image; fusing the reference image and the one or more first images to obtain a second image; and performing noise reduction on the second image.
Method for operating two drives which operate on mutually decoupled wheels of a motor vehicle, in which a control unit transmits signals to the drives to achieve a desired state, by means of which a desired torque to be generated by each of the drives is requested, characterised in that based on at least one measurement variable, it is determined, in particular a number of times, which actual driving state is set to which respective desired state, and in that on the basis of a measurement value or measurement values relating to the at least one measurement variable allocation factors relating to the desired torques of the two drives relative to one another are determined.
A method comprising: detecting an activation of an ISM-band radio transceiver of a user equipment, UE, in a wireless communication system, wherein the UE is equipped with the ISM-band radio transceiver and a coexisting OFDMA-based radio transceiver; selecting or reselecting to a cell in non-ISM frequencies if the UE is in RRC_IDLE state, wherein the selecting or reselecting is based on prioritizing the non-ISM frequencies for OFDMA-based communications, characterized in that the method further comprises switching to RRC_IDLE state from RRC_CONNECTED state before the selecting or reselecting. detecting an activation of an ISM-band radio transceiver of a user equipment, UE, in a wireless communication system, wherein the UE is equipped with the ISM-band radio transceiver and a coexisting OFDMA-based radio transceiver; selecting or reselecting to a cell in non-ISM frequencies if the UE is in RRC_IDLE state, wherein the selecting or reselecting is based on prioritizing the non-ISM frequencies for OFDMA-based communications, characterized in that the method further comprises switching to RRC_IDLE state from RRC_CONNECTED state before the selecting or reselecting.
A connector assembly (30, 30') for connecting a stator coil end (11, 11') to a ring (12, 12') of an electrical machine, the stator coil end having a fluid passageway (21, 21') therein, wherein the connector assembly connects the stator coil end to the ring along an axis (27, 27') of the stator coil end, the connector assembly comprising: a header cap (13, 13') comprising an open end (14, 14') to be received on the stator coil end and a closed end (15, 15') opposite the open end, the closed end defining a coil spherical connector portion (16, 16'), and said header cap having a fluid port (17, 17') therein to be coupled to the fluid passageway of the stator coil end; a ring spherical connector portion (22, 22') to be carried by the ring; and a pair of connector members (26, 26') to receive therebetween said coil and ring spherical connector portions. a header cap (13, 13') comprising an open end (14, 14') to be received on the stator coil end and a closed end (15, 15') opposite the open end, the closed end defining a coil spherical connector portion (16, 16'), and said header cap having a fluid port (17, 17') therein to be coupled to the fluid passageway of the stator coil end; a ring spherical connector portion (22, 22') to be carried by the ring; and a pair of connector members (26, 26') to receive therebetween said coil and ring spherical connector portions.
An electron multiplier (200, 300) comprising: a first plate (202, 302) having a first interior surface (206, 306), said first interior surface being electron emissive; a second plate (204, 304) having a second interior surface (208, 308), said second interior surface being electron emissive; a voltage source connected across said first plate and said second plate; a collector generating a signal responsive to electron multiplication by said first plate and said second plate; wherein said first interior surface and said second interior surface are parallel and are non-planar, characterized in that said first interior surface and said second interior surface define a channel (210, 310) of a cross-sectional shape that corresponds to either one period or two periods of a sinusoidal waveform. a first plate (202, 302) having a first interior surface (206, 306), said first interior surface being electron emissive; a second plate (204, 304) having a second interior surface (208, 308), said second interior surface being electron emissive; a voltage source connected across said first plate and said second plate; a collector generating a signal responsive to electron multiplication by said first plate and said second plate; wherein said first interior surface and said second interior surface are parallel and are non-planar, characterized in that said first interior surface and said second interior surface define a channel (210, 310) of a cross-sectional shape that corresponds to either one period or two periods of a sinusoidal waveform.
An ophthalmic spectacle lens supply system for providing an ophthalmic spectacle lens according to a desired value of a geometrical parameter thereof, comprising: - processing means at a lens determination side, adapted to provide lens data of a lens blank selected from a plurality of semi-finished spectacle lens blanks based upon order data, and comprising: o selecting means adapted to select a lens blank from the plurality of semi-finished spectacle lens blanks based upon the measured value of the geometrical parameter of said lens blank, each semi-finished spectacle lens blank having an identifier allowing retrieval of the measured value of the geometrical parameter by retrieving the measured value of the geometrical parameter of the corresponding lens blanks, and comparing the measured values of the geometrical parameter of the lens blanks with the desired value for said geometrical parameter; and o outputting means adapted to output said lens data, wherein said lens data comprise lens blank data and surface data. - processing means at a lens determination side, adapted to provide lens data of a lens blank selected from a plurality of semi-finished spectacle lens blanks based upon order data, and comprising: o selecting means adapted to select a lens blank from the plurality of semi-finished spectacle lens blanks based upon the measured value of the geometrical parameter of said lens blank, each semi-finished spectacle lens blank having an identifier allowing retrieval of the measured value of the geometrical parameter by retrieving the measured value of the geometrical parameter of the corresponding lens blanks, and comparing the measured values of the geometrical parameter of the lens blanks with the desired value for said geometrical parameter; and o outputting means adapted to output said lens data, wherein said lens data comprise lens blank data and surface data. o selecting means adapted to select a lens blank from the plurality of semi-finished spectacle lens blanks based upon the measured value of the geometrical parameter of said lens blank, each semi-finished spectacle lens blank having an identifier allowing retrieval of the measured value of the geometrical parameter by retrieving the measured value of the geometrical parameter of the corresponding lens blanks, and comparing the measured values of the geometrical parameter of the lens blanks with the desired value for said geometrical parameter; and o outputting means adapted to output said lens data, wherein said lens data comprise lens blank data and surface data.