mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: an optical circuit switch, OCS, comprising: a first fiber collimator and a second fiber collimator; a OCS internal optical path coupling the first and second fiber collimators an optical circulator having a bidirectional port optically coupled to a port of the second fiber collimator; a first transceiver optically coupled to the optical circulator; a first link diagnostic system comprising: a first photodetector and a second photodetector; a light source; an optical coupler, coupling the light source to the second photodetector; and wherein: the first photodetector is optically coupled to the optical circulator along a path comprising a fiber input to the first fiber collimator, the OCS internal optical path, and the port of the second fiber collimator. an optical circuit switch, OCS, comprising: a first fiber collimator and a second fiber collimator; a OCS internal optical path coupling the first and second fiber collimators an optical circulator having a bidirectional port optically coupled to a port of the second fiber collimator; a first transceiver optically coupled to the optical circulator; a first fiber collimator and a second fiber collimator; a OCS internal optical path coupling the first and second fiber collimators an optical circulator having a bidirectional port optically coupled to a port of the second fiber collimator; a first link diagnostic system comprising: a first photodetector and a second photodetector; a light source; an optical coupler, coupling the light source to the second photodetector; and wherein: the first photodetector is optically coupled to the optical circulator along a path comprising a fiber input to the first fiber collimator, the OCS internal optical path, and the port of the second fiber collimator. a light source; an optical coupler, coupling the light source to the second photodetector; and wherein: the first photodetector is optically coupled to the optical circulator along a path comprising a fiber input to the first fiber collimator, the OCS internal optical path, and the port of the second fiber collimator.
A cargo bike comprising a bicycle frame connected with a chainstay supporting at least one rear wheel and with a fork element supporting at least one front wheel, wherein the bicycle frame comprises a support element for receiving a cargo receiving container arranged between a handlebar tube and the fork element, and a battery supported by the bicycle frame, and wherein the support element comprises two substantially horizontal frame elements, characterized in that the battery is exclusively arranged between the two frame elements. a bicycle frame connected with a chainstay supporting at least one rear wheel and with a fork element supporting at least one front wheel, wherein the bicycle frame comprises a support element for receiving a cargo receiving container arranged between a handlebar tube and the fork element, and a battery supported by the bicycle frame, and wherein the support element comprises two substantially horizontal frame elements, characterized in that the battery is exclusively arranged between the two frame elements.
Vehicle wheel speed calculation method including the steps of: - recording, during a predefined period (T E), in a buffer, values taken by a clock coded on a number Nb of bits, during the receipt of at least two consecutive electric pulses k-1 and k, - calculating a wheel speed, characterized in that, when the number of electric pulses received during said predefined period (T E) is less than the number of times the clock moves to the zero value during said predefined period (T E), said wheel speed calculation step uses the formula: V n = 2 ⁢ πR N ⁢ Δ ⁢ t n where V(n) is the wheel speed calculated at said calculation step, R is a wheel radius pre-recorded value, N is the number of teeth of the wheel speed sensor used in said method, Δ ⁢ t n = top k − top k − 1 + 2 Nb − 1 n ∗ T H, where top k is the clock value recorded during the receipt of the k-th electric pulse, and T H is the value of the period of said clock, the value of n being determined such that 2 ⁢ πRi NT H < V n < 2 ⁢ πR i + 1 NT H, i being the number of electric pulses received during said predefined period (T E). - recording, during a predefined period (T E), in a buffer, values taken by a clock coded on a number Nb of bits, during the receipt of at least two consecutive electric pulses k-1 and k, - calculating a wheel speed, characterized in that, when the number of electric pulses received during said predefined period (T E) is less than the number of times the clock moves to the zero value during said predefined period (T E), said wheel speed calculation step uses the formula: V n = 2 ⁢ πR N ⁢ Δ ⁢ t n where V(n) is the wheel speed calculated at said calculation step, R is a wheel radius pre-recorded value, N is the number of teeth of the wheel speed sensor used in said method, Δ ⁢ t n = top k − top k − 1 + 2 Nb − 1 n ∗ T H, where top k is the clock value recorded during the receipt of the k-th electric pulse, and T H is the value of the period of said clock, the value of n being determined such that 2 ⁢ πRi NT H < V n < 2 ⁢ πR i + 1 NT H, i being the number of electric pulses received during said predefined period (T E). V(n) is the wheel speed calculated at said calculation step, R is a wheel radius pre-recorded value, N is the number of teeth of the wheel speed sensor used in said method, Δ ⁢ t n = top k − top k − 1 + 2 Nb − 1 n ∗ T H, where top k is the clock value recorded during the receipt of the k-th electric pulse, and T H is the value of the period of said clock, the value of n being determined such that 2 ⁢ πRi NT H < V n < 2 ⁢ πR i + 1 NT H, i being the number of electric pulses received during said predefined period (T E).
An apparatus comprising: a fixation section including an opening therethrough and having a curved bone-engaging surface, a portion of the bone-engaging surface being shaped to approximately match an exterior bone surface; and structure adapted to maintain the bone-engaging surface in contact with the exterior bone surface, the structure including a flexible elongate element adapted to extend through a bone portion and including a first portion to operatively couple the flexible elongate element and the fixation section, wherein the fixation section includes: a first section including spaced first and second surface portions (37, 38) configured to engage the exterior bone surface, the first surface portion being configured to exert a first force in a first direction and the second surface portion being configured to exert a second force in a second direction, the first and second directions forming an angle with respect to each other, wherein the fixation section further includes: a second section extending from the first section, the second section comprising a projection configured to extend into a bone and wherein the opening extends through the projection, characterised in that the second section is fixed to the first section eccentric to a central portion of the first section. a fixation section including an opening therethrough and having a curved bone-engaging surface, a portion of the bone-engaging surface being shaped to approximately match an exterior bone surface; and structure adapted to maintain the bone-engaging surface in contact with the exterior bone surface, the structure including a flexible elongate element adapted to extend through a bone portion and including a first portion to operatively couple the flexible elongate element and the fixation section, wherein the fixation section includes: a first section including spaced first and second surface portions (37, 38) configured to engage the exterior bone surface, the first surface portion being configured to exert a first force in a first direction and the second surface portion being configured to exert a second force in a second direction, the first and second directions forming an angle with respect to each other, wherein the fixation section further includes: a second section extending from the first section, the second section comprising a projection configured to extend into a bone and wherein the opening extends through the projection, characterised in that the second section is fixed to the first section eccentric to a central portion of the first section. a second section extending from the first section, the second section comprising a projection configured to extend into a bone and wherein the opening extends through the projection, characterised in that the second section is fixed to the first section eccentric to a central portion of the first section.
A combustion burner, comprising: a fuel nozzle that can inject fuel gas in which fuel and air are mixed; at least one flame stabilizer provided on an axial center side near a tip end of the fuel nozzle; and a partitioning member that partitions an inner flow channel in which the flame stabilizer is provided and an outer flow channel on an outer side of the inner flow channel, inside the fuel nozzle, wherein the flow channel cross-sectional area of the inner flow channel partitioned by the partitioning member expands in a flow direction of the fuel gas, characterized in that the partitioning member has an inclination angle, which is an angle to a direction parallel to a flow direction of the fuel gas, that decreases with regard to an upstream end portion in the flow direction of the fuel gas, when approaching a tip end side. a fuel nozzle that can inject fuel gas in which fuel and air are mixed; at least one flame stabilizer provided on an axial center side near a tip end of the fuel nozzle; and a partitioning member that partitions an inner flow channel in which the flame stabilizer is provided and an outer flow channel on an outer side of the inner flow channel, inside the fuel nozzle, wherein the flow channel cross-sectional area of the inner flow channel partitioned by the partitioning member expands in a flow direction of the fuel gas, characterized in that the partitioning member has an inclination angle, which is an angle to a direction parallel to a flow direction of the fuel gas, that decreases with regard to an upstream end portion in the flow direction of the fuel gas, when approaching a tip end side.
An electrical connector for a medical device, the connector comprising: a main support having a front and a back opposite the front, a top and a bottom opposite the top, and a left and a right opposite the left; fingers that each extend forwardly from the front of the main support to a tip, wherein the fingers have a top and a bottom opposite the top, and wherein the fingers are arranged from the left to the right of the main support such that gaps are defined between the fingers; and a flexible circuit board having an outer surface and an inner surface opposite the outer surface, wherein the flexible circuit board includes electrical leads on the outer surface thereof, wherein openings are defined through the flexible circuit board between the electrical leads, and wherein the flexible circuit board is wrapped around the fingers such that the outer surface of the flexible circuit board is supported on both the top and the bottom of the fingers and the openings in the flexible circuit board are aligned with the gaps between the fingers, wherein a finger height is defined between the tops and bottoms of the fingers, further comprising walls that sandwich each of the fingers, wherein the walls each have a top and a bottom opposite the top that define a wall height therebetween, wherein the walls extend away from the main support to a front edge, and wherein at least one of the wall height of each of the walls is greater than the finger height of each of the fingers and the front edges of the walls extends farther than the tips of the fingers from the main support. a main support having a front and a back opposite the front, a top and a bottom opposite the top, and a left and a right opposite the left; fingers that each extend forwardly from the front of the main support to a tip, wherein the fingers have a top and a bottom opposite the top, and wherein the fingers are arranged from the left to the right of the main support such that gaps are defined between the fingers; and a flexible circuit board having an outer surface and an inner surface opposite the outer surface, wherein the flexible circuit board includes electrical leads on the outer surface thereof, wherein openings are defined through the flexible circuit board between the electrical leads, and wherein the flexible circuit board is wrapped around the fingers such that the outer surface of the flexible circuit board is supported on both the top and the bottom of the fingers and the openings in the flexible circuit board are aligned with the gaps between the fingers, wherein a finger height is defined between the tops and bottoms of the fingers, further comprising walls that sandwich each of the fingers, wherein the walls each have a top and a bottom opposite the top that define a wall height therebetween, wherein the walls extend away from the main support to a front edge, and wherein at least one of the wall height of each of the walls is greater than the finger height of each of the fingers and the front edges of the walls extends farther than the tips of the fingers from the main support.
Method for configuring an operating device for a lighting system which is coupled to a communication network, comprising: - determining a first location information as a function of a network identifier associated with the operating device, characterized by: - detecting environmental information comprising a measurable variable at the site of the operating device, - determining a second location information as a function of the environmental information, - determining position information indicating the geographical position of the operating device as a function of the first location information and the second location information, and - configuring an operating parameter of the operating device as a function of the position information. - determining a first location information as a function of a network identifier associated with the operating device, - detecting environmental information comprising a measurable variable at the site of the operating device, - determining a second location information as a function of the environmental information, - determining position information indicating the geographical position of the operating device as a function of the first location information and the second location information, and - configuring an operating parameter of the operating device as a function of the position information.
In vitro method for the screening of an inflammatory rheumatic disease in a subject comprising the following steps: a) determining the levels of anti-CD26 IgG antibodies in an antibody-containing sample isolated from said subject; b) comparing the levels in said antibody-containing sample with a reference value; wherein an increase of the anti-CD26 IgG antibody levels in the subject sample with regard to said reference value is indicative of inflammatory rheumatic disease. a) determining the levels of anti-CD26 IgG antibodies in an antibody-containing sample isolated from said subject; b) comparing the levels in said antibody-containing sample with a reference value;
A method for transferring a cell capability across an Iur interface, comprising: when a User Equipment, UE, which is in a non CELL_DCH state, moves from a Serving Radio Network Controller, SRNC, controlled area to a Drift Radio Network Controller, DRNC, controlled cell, the UE sending a CELL UPDATE message to a DRNC; the DRNC sending an uplink signaling transfer indication message to a SRNC to notify cell change information of the UE to the SRNC, wherein the uplink signaling transfer indication message includes Multimedia Broadcast Multicast Service, MBMS, service supporting capability indication information of the DRNC controlled cell. when a User Equipment, UE, which is in a non CELL_DCH state, moves from a Serving Radio Network Controller, SRNC, controlled area to a Drift Radio Network Controller, DRNC, controlled cell, the UE sending a CELL UPDATE message to a DRNC; the DRNC sending an uplink signaling transfer indication message to a SRNC to notify cell change information of the UE to the SRNC, wherein the uplink signaling transfer indication message includes Multimedia Broadcast Multicast Service, MBMS, service supporting capability indication information of the DRNC controlled cell.
A surgical stapling instrument comprising: a handle assembly; an elongated body portion extending from the handle assembly and defining a longitudinal axis; and an end effector supported on a distal portion of the elongated body portion, the end effector including: a curved housing having a base portion and a jaw portion, the base portion being secured to the distal portion of the elongated body portion; a curved anvil assembly supported on the jaw portion; and a curved cartridge assembly supported on the base portion, and defining first and second arrays of staple receiving slots (171a,171b) and a knife receiving slot between the first array of staple receiving slots and the second array of staple receiving slots, the first array of staple receiving slots being disposed radially outwardly of the knife receiving slot and including three rows of staples, wherein a height of the staples in each of the rows of three rows of staples of the first array of staple receiving slots is different, characterized in that the second array of staple receiving slots includes only two rows of staples. a handle assembly; an elongated body portion extending from the handle assembly and defining a longitudinal axis; and an end effector supported on a distal portion of the elongated body portion, the end effector including: a curved housing having a base portion and a jaw portion, the base portion being secured to the distal portion of the elongated body portion; a curved anvil assembly supported on the jaw portion; and a curved cartridge assembly supported on the base portion, and defining first and second arrays of staple receiving slots (171a,171b) and a knife receiving slot between the first array of staple receiving slots and the second array of staple receiving slots, the first array of staple receiving slots being disposed radially outwardly of the knife receiving slot and including three rows of staples, wherein a height of the staples in each of the rows of three rows of staples of the first array of staple receiving slots is different, a curved housing having a base portion and a jaw portion, the base portion being secured to the distal portion of the elongated body portion; a curved anvil assembly supported on the jaw portion; and a curved cartridge assembly supported on the base portion, and defining first and second arrays of staple receiving slots (171a,171b) and a knife receiving slot between the first array of staple receiving slots and the second array of staple receiving slots, the first array of staple receiving slots being disposed radially outwardly of the knife receiving slot and including three rows of staples, wherein a height of the staples in each of the rows of three rows of staples of the first array of staple receiving slots is different,
A backlight assembly comprising: a light source unit configured to generate light; and an edge-lit light guide plate disposed on one side of the light source unit and configured to emit light incident from the light source unit, an uneven portion comprising a plurality of patterns forming crests (t) and valleys (b) being formed in at least one plane of the light guide plate, and the plurality of patterns being formed such that the crests (t) rise to a plurality of different heights from the lower surface of the light guide plate to the perpendicular direction, wherein a virtual extension line connecting the adjacent crests (t) sequentially rises and falls in an approximate waveform; wherein an optical element comprising an optical sheet is disposed on the plane of the light guide plate in which the plurality of patterns are formed, wherein the light passing through the light guide plate is emitted to the optical element; and an uneven portion is formed in a plane of the optical element, wherein the plane of the optical element faces the light guide plate, and wherein the uneven portion comprises a plurality of patterns forming crests and valleys wherein the plurality of patterns of the optical element are arranged such that it corresponds to the plurality of patterns of the light guide plate and such that its crests rise to a plurality of different heights from the lower surface of the optical element to the perpendicular direction. a light source unit configured to generate light; and an edge-lit light guide plate disposed on one side of the light source unit and configured to emit light incident from the light source unit, an uneven portion comprising a plurality of patterns forming crests (t) and valleys (b) being formed in at least one plane of the light guide plate, and the plurality of patterns being formed such that the crests (t) rise to a plurality of different heights from the lower surface of the light guide plate to the perpendicular direction, wherein a virtual extension line connecting the adjacent crests (t) sequentially rises and falls in an approximate waveform; wherein an optical element comprising an optical sheet is disposed on the plane of the light guide plate in which the plurality of patterns are formed, wherein the light passing through the light guide plate is emitted to the optical element; and an uneven portion is formed in a plane of the optical element, wherein the plane of the optical element faces the light guide plate, and wherein the uneven portion comprises a plurality of patterns forming crests and valleys wherein the plurality of patterns of the optical element are arranged such that it corresponds to the plurality of patterns of the light guide plate and such that its crests rise to a plurality of different heights from the lower surface of the optical element to the perpendicular direction.