mhurhangee/ep-ind-claims huggingface dataset:
Method for rendering information on a screen of a terminal comprising a display space on which a graphical object is displayed in an initial representation ( rI), said graphical object relating to an application, said rendering method comprising: - a step of obtaining at least one datum ( i) on the inclination of said terminal with respect to a reference plane; - a step of selecting at least one item of information, from a plurality of items of information to be rendered, according to said obtained inclination datum, delivering at least one selected item of information; - a step of transforming said initial representation ( rI) into a modified representation ( rM) comprising said at least one selected item of information; - a step of rendering said modified representation ( rM) of said graphical object, characterized in that the step of transforming said initial representation ( rI) comprises: - a step of determining a number of selected items of information; - a step of creating an equivalent number of cast shadows, each comprising one of said selected items of information; - a step of superposing said initial representation with said previously created cast shadows, delivering said modified representation. - a step of obtaining at least one datum ( i) on the inclination of said terminal with respect to a reference plane; - a step of selecting at least one item of information, from a plurality of items of information to be rendered, according to said obtained inclination datum, delivering at least one selected item of information; - a step of transforming said initial representation ( rI) into a modified representation ( rM) comprising said at least one selected item of information; - a step of rendering said modified representation ( rM) of said graphical object, - a step of determining a number of selected items of information; - a step of creating an equivalent number of cast shadows, each comprising one of said selected items of information; - a step of superposing said initial representation with said previously created cast shadows, delivering said modified representation.
Brassiere for a woman having a chest area, a breast projecting from the chest area, the chest area having a transition area transitioning between the chest area and a proximal portion, an intermediate portion, and a distal portion of the breast, the transition area defining a continuous contour, the brassiere comprising: a cup (78; 178) configured to support the breast; a wing (82; 182) attached to the cup (78; 178), the wing (82; 182) adapted to extend around to a back of the woman, and an armature (14; 114) at least partially attached to the cup (78; 178) and wing (82; 182), the armature (14; 114) having a distal portion configured to be positioned adjacent the distal portion of the breast, a proximal portion configured to be positioned adjacent the proximal portion of the breast, and an intermediate portion configured to be positioned adjacent the intermediate portion of the breast characterized in the armature (14; 114) having an unsprung state configured to match the contour of the transition area of the chest. a cup (78; 178) configured to support the breast; a wing (82; 182) attached to the cup (78; 178), the wing (82; 182) adapted to extend around to a back of the woman, and an armature (14; 114) at least partially attached to the cup (78; 178) and wing (82; 182), the armature (14; 114) having a distal portion configured to be positioned adjacent the distal portion of the breast, a proximal portion configured to be positioned adjacent the proximal portion of the breast, and an intermediate portion configured to be positioned adjacent the intermediate portion of the breast characterized in the armature (14; 114) having an unsprung state configured to match the contour of the transition area of the chest.
Sensor module for a mobile part, wherein, within a housing of the sensor module, a first circuit board is plug-connected to a second circuit board, wherein the first circuit board has a first sensor and the second circuit board has a second sensor, wherein the sensor signals of the first sensor and of the second sensor are fed to a computer unit, which is connected to a first databus connection of the sensor module, in particular data interface of the sensor module, characterized in that the first circuit board is oriented perpendicular to the second circuit board, wherein the second circuit board is plug-connected to a third circuit board, which is arranged perpendicular to the second circuit board and is oriented parallel to the first circuit board, wherein a conductor track of the third circuit board is configured as an antenna of a reader for reading an RFID tag arranged on the ground, wherein the first sensor is configured as an acceleration sensor, wherein or in that the first sensor comprises two acceleration sensors mounted on the first circuit board, said sensors being spaced apart from each other perpendicular to the direction of travel of the mobile part and being arranged in a manner rotated through 90° in relation to each other, wherein the second sensor is a lane guidance sensor, wherein the second sensor comprises spaced-apart pairs of windings. wherein, within a housing of the sensor module, a first circuit board is plug-connected to a second circuit board, wherein the first circuit board has a first sensor and the second circuit board has a second sensor, wherein the sensor signals of the first sensor and of the second sensor are fed to a computer unit, which is connected to a first databus connection of the sensor module, in particular data interface of the sensor module, characterized in that the first circuit board is oriented perpendicular to the second circuit board, wherein the second circuit board is plug-connected to a third circuit board, which is arranged perpendicular to the second circuit board and is oriented parallel to the first circuit board, wherein a conductor track of the third circuit board is configured as an antenna of a reader for reading an RFID tag arranged on the ground, wherein the first sensor is configured as an acceleration sensor, wherein or in that the first sensor comprises two acceleration sensors mounted on the first circuit board, said sensors being spaced apart from each other perpendicular to the direction of travel of the mobile part and being arranged in a manner rotated through 90° in relation to each other, wherein the second sensor is a lane guidance sensor, wherein the second sensor comprises spaced-apart pairs of windings.
Steel for springs, the steel comprising a chemical composition consisting of C: 0.45 mass% or more and less than 0.65 mass%, Si: 0.15 mass% or more and 0.70 mass% or less, Mn: 0.10 mass% or more and 1.00 mass% or less, Cr: 0.20 mass% or more and 1.50 mass% or less, P: 0.025 mass% or less, S: 0.025 mass% or less, O: 0.0015 mass% or less, Sb: 0.010 mass% or more and less than 0.030 mass%, Sn: 0.010 mass% or more and 0.030 mass% or less, optionally further one or more selected from the group consisting of Al: 0.50 mass% or less, Cu: 1.0 mass% or less, Ni: 2.0 mass% or less, W: 2.0 mass% or less, Nb: 0.1 mass% or less, Ti: 0.2 mass% or less, V: 0.5 mass% or less, Mo: 1.0 mass% or less, and B: 0.005 mass% or less, and the balance being Fe and incidental impurities, and an A value calculated by Formula being 0.65 or more and 3.50 or less, a B value calculated by Formula being 3.10 or more and 34.00 or less, and a C value calculated by Formula being 0.020 mass% or more and 0.050 mass% or less: A = C / Si + Sb + Sn B = Si / Sn + Sb C = Sb + Sn where brackets represent content in mass% of an element enclosed in the brackets.
A wireless charging assembly comprising: a housing including a charging surface; a ferrimagnetic sleeve disposed within the housing, the ferrimagnetic sleeve including first and second opposing faces, a central opening extending from the first face to the second face through the ferrimagnetic sleeve, and a recess surrounding the central opening and open at the first face; an inductive coil disposed within the recess between the charging surface and the second face of the ferrimagnetic sleeve, the inductive coil configured to wirelessly transmit power across the charging surface; a magnet disposed within the central opening of the ferrimagnetic sleeve; characterized by an electromagnetic shield disposed between the charging surface of the housing and the inductive coil. a housing including a charging surface; a ferrimagnetic sleeve disposed within the housing, the ferrimagnetic sleeve including first and second opposing faces, a central opening extending from the first face to the second face through the ferrimagnetic sleeve, and a recess surrounding the central opening and open at the first face; an inductive coil disposed within the recess between the charging surface and the second face of the ferrimagnetic sleeve, the inductive coil configured to wirelessly transmit power across the charging surface; a magnet disposed within the central opening of the ferrimagnetic sleeve; characterized by an electromagnetic shield disposed between the charging surface of the housing and the inductive coil.
A method for regulation of a timepiece comprising an hairspring -balance oscillator or of a movement comprising an hairspring - balance oscillator or of an hairspring -balance oscillator, comprising: - a phase for calculating, an imbalance vector of a hairspring - balance oscillator expressed by its norm and its direction, the method comprising at least the following steps: - putting the hairspring-balance oscillator into oscillating motion at two amplitudes at least; - measuring for each amplitude and for at least two positions of the oscillator, data which is representative of the period of oscillation of the oscillator; then - using the data from the preceding step in order to calculate the imbalance vector of the hairspring-balance oscillator; and - modifying the balance in order to eliminate all of this imbalance from the balance. - a phase for calculating, an imbalance vector of a hairspring - balance oscillator expressed by its norm and its direction, the method comprising at least the following steps: - putting the hairspring-balance oscillator into oscillating motion at two amplitudes at least; - measuring for each amplitude and for at least two positions of the oscillator, data which is representative of the period of oscillation of the oscillator; then - using the data from the preceding step in order to calculate the imbalance vector of the hairspring-balance oscillator; and - modifying the balance in order to eliminate all of this imbalance from the balance.
A fluid injection device comprising a body for coming into contact with an injection site, at least two fluid reservoirs, and an injection needle for penetrating into said injection site so as to inject therein the contents of one or more reservoir(s), said device comprising a single rotary actuator that, when it turns in a first direction of rotation, includes means to activate the selection of the reservoir(s) to be dispensed, and that, when it turns in the opposite direction, includes means to actuate a dispenser system, in particular a peristaltic pump, characterized in that said actuator includes a central pin that extends through an oblong opening of the body, thereby forming a floating cog wherein the actuator, when it is at a first end of said oblong opening, cooperates with a gear of a rotary selector member (132, 135), in particular via an intermediate cog, so as to actuate the selection of the reservoir(s) to be dispensed, and when it is at the other end of said oblong opening, cooperates with a gear of a crankshaft, so as to actuate a peristaltic pump.
An antenna device, comprising: a first ground member (15, 115, 315) which is connected to a ground; one or more first antennas (11, 111, 112, 311, 312, 313, 314) which are connected to the first ground member and configured resonate in a first frequency band; a second ground member (25, 125, 329a) which is arranged at a position adjacent to the first ground member with a gap (60, 160, 161, 162, 163, 164, 360) in between and connected to a ground different from the ground to which the first ground member is connected; one or more second antennas (21, 121, 122, 321, 322, 323, 324, 325) which are connected to the second ground member and configured to resonate in a second frequency band different from the first frequency band; one or more first filters (31, 131, 133, 231, 231a, 331a, 333a, 334a) which connect the first ground member and the second ground member and configured to attenuate a signal in the first frequency band; and one or more second filters (32, 132, 134, 232, 232a, 331b, 333b, 334b) which connect the first ground member and the second ground member at a position different from a position where the one or more first filters connect the first ground member and the second ground member, and which are configured to attenuate the signal in the first frequency band less than the one or more first filters. a first ground member (15, 115, 315) which is connected to a ground; one or more first antennas (11, 111, 112, 311, 312, 313, 314) which are connected to the first ground member and configured resonate in a first frequency band; a second ground member (25, 125, 329a) which is arranged at a position adjacent to the first ground member with a gap (60, 160, 161, 162, 163, 164, 360) in between and connected to a ground different from the ground to which the first ground member is connected; one or more second antennas (21, 121, 122, 321, 322, 323, 324, 325) which are connected to the second ground member and configured to resonate in a second frequency band different from the first frequency band; one or more first filters (31, 131, 133, 231, 231a, 331a, 333a, 334a) which connect the first ground member and the second ground member and configured to attenuate a signal in the first frequency band; and one or more second filters (32, 132, 134, 232, 232a, 331b, 333b, 334b) which connect the first ground member and the second ground member at a position different from a position where the one or more first filters connect the first ground member and the second ground member, and which are configured to attenuate the signal in the first frequency band less than the one or more first filters.
A compliant contact assembly (80, 108, 144, 160) comprising: a contact member having a contact tip (70, 96, 132, 150, 152); a compression spring for allowing compression of the contact member, characterized in that the compliant contact assembly further comprises an angled cam surface (76, 100, 154, 156) on the contact tip (70, 96, 132, 150, 152) to generate a lateral movement of the contact tip (70, 96, 132, 150, 152) during compression of the contact assembly (80, 108, 144, 160) for inducing scrubbing of the contact tip (70, 96, 132, 150, 152) with a test site. a contact member having a contact tip (70, 96, 132, 150, 152); a compression spring for allowing compression of the contact member, characterized in that the compliant contact assembly further comprises an angled cam surface (76, 100, 154, 156) on the contact tip (70, 96, 132, 150, 152) to generate a lateral movement of the contact tip (70, 96, 132, 150, 152) during compression of the contact assembly (80, 108, 144, 160) for inducing scrubbing of the contact tip (70, 96, 132, 150, 152) with a test site.
Dielectric composition containing a main component and Li as a first auxiliary component, wherein: the main component is represented by (Bi a Na b Sr c Ln a)TiO 3; Ln is at least one selected from La, Pr, Nd, and Sm; a, b, c and d satisfy the following: 0.100≤a≤0.400, 0.100≤b≤0.400, 0.100≤c≤0.700, 0.049≤d≤0.067 and 0.900≤a+b+c+d≤1.050;the dielectric composition contains at least 3 molar parts and 6 molar parts or less of the first auxiliary component, with respect to 100 molar parts of Ti contained in the main component. the main component is represented by (Bi a Na b Sr c Ln a)TiO 3; Ln is at least one selected from La, Pr, Nd, and Sm; a, b, c and d satisfy the following: 0.100≤a≤0.400, 0.100≤b≤0.400, 0.100≤c≤0.700, 0.049≤d≤0.067 and 0.900≤a+b+c+d≤1.050;the dielectric composition contains at least 3 molar parts and 6 molar parts or less of the first auxiliary component, with respect to 100 molar parts of Ti contained in the main component.
A method of transmitting, by a user equipment, UE, a demodulation reference signal, DMRS, in a wireless communication system supporting Narrow-Band-Internet of Things, NB-IoT, the method comprising: generating a reference signal sequence used for the DMRS; mapping the reference signal sequence to at least one symbol; and transmitting, to a base station, the demodulation reference signal, DMRS, on a single subcarrier in the at least one symbol, wherein the reference signal sequence is generated in a case where the number of subcarriers within a resource unit for transmitting the DMRS in NB-IoT communication is 1, wherein the resource unit is defined as consecutive Single Carrier-Frequency Division Multiplexing Access, SC-FDMA, symbols in a time domain and consecutive subcarriers in a frequency domain, wherein the reference signal sequence is generated using a gold sequence generated based on an m-sequence, and wherein the gold sequence is initialized with c int =35. generating a reference signal sequence used for the DMRS; mapping the reference signal sequence to at least one symbol; and transmitting, to a base station, the demodulation reference signal, DMRS, on a single subcarrier in the at least one symbol, wherein the reference signal sequence is generated in a case where the number of subcarriers within a resource unit for transmitting the DMRS in NB-IoT communication is 1, wherein the resource unit is defined as consecutive Single Carrier-Frequency Division Multiplexing Access, SC-FDMA, symbols in a time domain and consecutive subcarriers in a frequency domain, wherein the reference signal sequence is generated using a gold sequence generated based on an m-sequence, and wherein the gold sequence is initialized with c int =35.
A garbage disposal support apparatus, comprising: a position obtaining unit configured to obtain position information about a person having an object; an object image obtaining unit configured to obtain image information about the object that the person has; a garbage determination unit configured to check the image information about the object that the person has against garbage image information stored in a database and determine whether the object is garbage or not; a route generation unit configured to generate route information to a disposal place of the garbage, based on the position information about the person and on disposal place information stored in the database, if the object is garbage; and a transmitter unit configured to transmit the route information to a display apparatus (4,81); the apparatus characterized in that: a disposal image obtaining unit configured to obtain image information about the disposal place; and a disposal confirmation unit configured to confirm whether the person has disposed of the object at the disposal place or not, based on the position information about the person and on the image information about the disposal place. a position obtaining unit configured to obtain position information about a person having an object; an object image obtaining unit configured to obtain image information about the object that the person has; a garbage determination unit configured to check the image information about the object that the person has against garbage image information stored in a database and determine whether the object is garbage or not; a route generation unit configured to generate route information to a disposal place of the garbage, based on the position information about the person and on disposal place information stored in the database, if the object is garbage; and a transmitter unit configured to transmit the route information to a display apparatus (4,81); the apparatus characterized in that: a disposal image obtaining unit configured to obtain image information about the disposal place; and a disposal confirmation unit configured to confirm whether the person has disposed of the object at the disposal place or not, based on the position information about the person and on the image information about the disposal place. a disposal image obtaining unit configured to obtain image information about the disposal place; and a disposal confirmation unit configured to confirm whether the person has disposed of the object at the disposal place or not, based on the position information about the person and on the image information about the disposal place.
A differential gear assembly, comprising: • a casing extending along a longitudinal drive axis and end gears (21, 22) adapted to receive first and second half shafts of a vehicle drive axle, the casing comprising at least one opening extending perpendicular to the longitudinal drive axis between outer and inner surfaces of the casing; • a first gear shaft received within the at least one opening of the casing, said first gear shaft comprising a substantially cylindrical shape and comprising at least one flat extending from its first end surface, said flat forming a first shoulder portion that defines a first bearing surface, which is recessed from the first end surface and received within the at least one opening; • a first differential side gear meshing with end gears (20, 21), the first differential side gear being rotatably mounted on the first gear shaft; • at least one fastening member fixing the first gear shaft with respect to the casing, said at least one fastening member contacting the first bearing surface, wherein the casing comprises a cavity, extending substantially parallel to the longitudinal drive axis and receiving the at least one fastening member characterised in that the cavity is a through hole and extends between a first end arranged at a side surface of the casing and a second end arranged at an inner surface of the at least one opening, wherein the first bearing surface is received within the at least one opening in such a way that the at least one fastening member is visible from the outside of the casing. • a casing extending along a longitudinal drive axis and end gears (21, 22) adapted to receive first and second half shafts of a vehicle drive axle, the casing comprising at least one opening extending perpendicular to the longitudinal drive axis between outer and inner surfaces of the casing; • a first gear shaft received within the at least one opening of the casing, said first gear shaft comprising a substantially cylindrical shape and comprising at least one flat extending from its first end surface, said flat forming a first shoulder portion that defines a first bearing surface, which is recessed from the first end surface and received within the at least one opening; • a first differential side gear meshing with end gears (20, 21), the first differential side gear being rotatably mounted on the first gear shaft; • at least one fastening member fixing the first gear shaft with respect to the casing, said at least one fastening member contacting the first bearing surface,
Carabiner comprising a ring having a side, interrupted by an opening delimited by a first and a second end (10, 12), wherein said opening is closed by a spring closing element which can take an open position and a closed position, wherein the first end of the ring is a bulb-shaped coupling portion, with a projecting part in a direction transverse to the plane of the carabiner, characterised in that said bulb-shaped coupling portion on both sides of the bulb forms a shoulder having an uneven surface, wherein the surface of the shoulder is convex with a broken line or continuous line profile.
A combination comprising a therapeutically effective amount of ibudilast or a pharmaceutically acceptable salt thereof, and a therapeutically effective amount of riluzole or a pharmaceutically acceptable salt thereof for use in a method of treating a human patient suffering from amyotrophic lateral sclerosis wherein the treatment results in stabilization of the patient's scleroses state.