mhurhangee/ep-ind-claims huggingface dataset:
Charging station for electric vehicles with - a ground foundation and - a column arranged above the ground foundation wherein, - the ground foundation and the column are formed in one piece within a single assembly and - the column comprises an opening which runs transversely to the longitudinal axis of the column and extends into the interior of the column, wherein the opening is arranged for accommodating charging electronics wherein the opening is arranged as receptacle for the charging electronics and locking means for the charging electronics are provided at the opening. - a ground foundation and - a column arranged above the ground foundation wherein, - the ground foundation and the column are formed in one piece within a single assembly and - the column comprises an opening which runs transversely to the longitudinal axis of the column and extends into the interior of the column, wherein the opening is arranged for accommodating charging electronics wherein the opening is arranged as receptacle for the charging electronics and locking means for the charging electronics are provided at the opening.
Bicycle electronic system, the system comprising a battery unit, at least one operating unit and a power supply and communication bus, each of said units (20, 21-28) being connected to said bus, characterised in that it comprises first user activated/deactivated means for switching-off/(re)switching-on and second means for switching-off/(re)switching-on suitable for disconnecting/connecting said battery unit from/to said power supply and communication bus in response to the activation/deactivation of said first means for switching-off/(re)switching-on.
A biosensor system, comprising: a sensor strip having a sample interface adjacent to a reservoir formed by the sensor strip; and a measurement device having a processor connected to a sensor interface, wherein the sensor interface has electrical communication with the sample interface, wherein the processor has electrical communication with a storage medium, wherein the processor is programmed to determine at least one output signal value responsive to the concentration of an analyte in a sample from the sensor interface within less than 300 milliseconds of applying an excitation pulse to the sample interface, the applied excitation pulse having a pulse width of 0.3 to 0.8 seconds, and wherein the excitation pulse is part of an input signal having at least 3 duty cycles within 30 seconds, where each duty cycle includes an excitation pulse and a relaxation, and wherein the processor is further programmed to determine the analyte concentration in the sample in response to the determined at least one output signal value. a sensor strip having a sample interface adjacent to a reservoir formed by the sensor strip; and a measurement device having a processor connected to a sensor interface, wherein the sensor interface has electrical communication with the sample interface, wherein the processor has electrical communication with a storage medium, wherein the processor is programmed to determine at least one output signal value responsive to the concentration of an analyte in a sample from the sensor interface within less than 300 milliseconds of applying an excitation pulse to the sample interface, the applied excitation pulse having a pulse width of 0.3 to 0.8 seconds, and wherein the excitation pulse is part of an input signal having at least 3 duty cycles within 30 seconds, where each duty cycle includes an excitation pulse and a relaxation, and wherein the processor is further programmed to determine the analyte concentration in the sample in response to the determined at least one output signal value.
A wire reel in combination with a wire wound around the wire reel, said combination being suitable for use in a reinforcing bar binder having a storing chamber provided in a main body of the reinforcing bar binder for mounting the wire reel, the wire is twisted for binding a reinforcing bar after it is wound around the reinforcing bar; wherein said wire reel has flanges (32, 33) for receiving said wire therebetween; wherein said wire reel is provided with to-be-detected portions (53, 65) which are detectable by detecting means (25, 80) formed in the reinforcing bar binder for detecting said wire reel; wherein said to-be-detected portions (53, 65) comprise at least one first to-be-detected portion being a contact-type to-be-detected portion which is detectable by a first detecting means for detecting the amount of rotation of said wire reel, said first detecting means being a contact-type sensor and forming part of said detecting means (25, 80), and at least one second to-be-detected portion which is detectable by a second detecting means for detecting the number of the second to-be-detected portion passing said second detecting means during a rotation of said wire reel through the amount of rotation detectable by said first detecting means, said second detecting means forming part of said detecting means (25, 80); wherein a boss portion is formed on one of said flanges (32,33), wherein said at least one first to-be-detected portion is formed outside said boss portion and said at least one second to-be-detected portion is formed inside said boss portion; wherein there are two first to-be-detected portions (65, 65) formed on an outer peripheral edge of said boss portion as a pair of protrusions (65, 65) opposite to each other; wherein said boss portion surrounds a round concave portion formed in a hub portion of said wire reel and has a stepped concave portion at its inner peripheral edge; and wherein a pair of fixation shafts (50,50) having at their tip ends light reflecting marks (53,53) forming said second to-be-detected portions is provided; characterised by said pair of fixation shafts (50,50) being housed in said round concave portion formed in said hub portion; said stepped concave portion being configured so that a protruding portion formed in said storing chamber may be fitted into the stepped concave portion; and wherein said protrusions (65, 65) are formed to have a trapezoid shape and include inclined edges at their opposite sides.
A large volume calorimeter, comprising: a test chamber comprising an inner box nested inside of an outer box and a plurality of heat flux sensors in contact with the exterior sidewalls of the inner box; at least one busbar in contact with an interior wall of the inner box; and a lid; wherein the test chamber is configured to be fully submerged in an isothermal bath during operation of the calorimeter; characterized in that the calorimeter further comprises: at least one thermally insulative device between the floor of the inner box and the floor of the outer box; a pair of wedges between each exterior sidewall of the inner box and each corresponding interior sidewall of the outer box; wherein each exterior sidewall of the inner box is thermally coupled to a corresponding interior sidewall of the outer box through the wedges. a test chamber comprising an inner box nested inside of an outer box and a plurality of heat flux sensors in contact with the exterior sidewalls of the inner box; at least one busbar in contact with an interior wall of the inner box; and a lid; wherein the test chamber is configured to be fully submerged in an isothermal bath during operation of the calorimeter; characterized in that the calorimeter further comprises: at least one thermally insulative device between the floor of the inner box and the floor of the outer box; a pair of wedges between each exterior sidewall of the inner box and each corresponding interior sidewall of the outer box; wherein each exterior sidewall of the inner box is thermally coupled to a corresponding interior sidewall of the outer box through the wedges. at least one thermally insulative device between the floor of the inner box and the floor of the outer box; a pair of wedges between each exterior sidewall of the inner box and each corresponding interior sidewall of the outer box; wherein each exterior sidewall of the inner box is thermally coupled to a corresponding interior sidewall of the outer box through the wedges.
A display control method for use with a multi-layer display system, the multi-layer display system including at least first and second display layers (14, 15), said display layers (14, 15) being arranged parallel to one another and overlapping in physical space, at least the first display layer being or capable of being made at least partially transparent so that a viewer can look through the first display layer and view the second display layer, the display control method comprising the steps of: i) detecting that the position of a first display element forming part of a first image to be displayed on the first display layer overlaps with the position of a second display element forming part of a second image to be displayed on the second display layer, ii) automatically adjusting the relative positioning between the first and second display elements, and iii) displaying the first and second display elements on their respective display layers (14, 15) in their adjusted position or positionsin order to improve the ability of a user of the multi-layer display system to view the overlapping portion of the first and second display elements. i) detecting that the position of a first display element forming part of a first image to be displayed on the first display layer overlaps with the position of a second display element forming part of a second image to be displayed on the second display layer, ii) automatically adjusting the relative positioning between the first and second display elements, and iii) displaying the first and second display elements on their respective display layers (14, 15) in their adjusted position or positionsin order to improve the ability of a user of the multi-layer display system to view the overlapping portion of the first and second display elements.
Anionic polymerization organometallic initiator of following formula 1: where: Met, which can be borne by the ortho, meta or para position, denotes an alkali metal, preferably Li, Na or K, or a stannyllithium SnLi group; preferably, Met denotes a lithium atom, and R 1 and R 2, and also R 3 and R 4, which can be borne by the ortho, meta or para position, denote, independently of one another, a hydrogen atom, a C 1 -C 15 alkyl group, a C 5 -C 15 cycloalkyl group, a C 6 -C 15 aryl group or a C 7 -C 15 arylalkyl group which can be separated from the aromatic nucleus by a heteroatom, such as O or S, and preferably R 1, R 2, R 3 and R 4 each denote a hydrogen atom, and R 5 denotes a C 1 -C 5 alkyl group, a C 5 -C 15 cycloalkyl group, a C 6 -C 15 aryl group, a C 7 -C 15 arylalkyl group or a protective group for the alkyne functional group, with the exception of the compounds 4-[2-(trimethylsilyl)ethynyl]phenyllithium and 3-[2-(trimethylsilyl)ethynyl]phenyllithium. Met, which can be borne by the ortho, meta or para position, denotes an alkali metal, preferably Li, Na or K, or a stannyllithium SnLi group; preferably, Met denotes a lithium atom, and R 1 and R 2, and also R 3 and R 4, which can be borne by the ortho, meta or para position, denote, independently of one another, a hydrogen atom, a C 1 -C 15 alkyl group, a C 5 -C 15 cycloalkyl group, a C 6 -C 15 aryl group or a C 7 -C 15 arylalkyl group which can be separated from the aromatic nucleus by a heteroatom, such as O or S, and preferably R 1, R 2, R 3 and R 4 each denote a hydrogen atom, and R 5 denotes a C 1 -C 5 alkyl group, a C 5 -C 15 cycloalkyl group, a C 6 -C 15 aryl group, a C 7 -C 15 arylalkyl group or a protective group for the alkyne functional group, with the exception of the compounds 4-[2-(trimethylsilyl)ethynyl]phenyllithium and 3-[2-(trimethylsilyl)ethynyl]phenyllithium.
A method of executing an application, the method performed by a second terminal and comprising: receiving, from a first terminal, information about an application being executed by the first terminal and at least one external device, wherein the at least one external device is related to the application, wherein the at least one external device is connected to the first terminal, and wherein the or each at least one external device is an input device, an output device or a controller configured to transmit input or output data to the first terminal via short-range wireless communication or to receive a control command from the first terminal via short-range wireless communication; receiving, from the first terminal, connection information regarding the at least one external device; establishing a connection with respect to the at least one external device based on the connection information; and executing the application with the at least one external device, wherein the application is executed based on the information about the application. receiving, from a first terminal, information about an application being executed by the first terminal and at least one external device, wherein the at least one external device is related to the application, wherein the at least one external device is connected to the first terminal, and wherein the or each at least one external device is an input device, an output device or a controller configured to transmit input or output data to the first terminal via short-range wireless communication or to receive a control command from the first terminal via short-range wireless communication; receiving, from the first terminal, connection information regarding the at least one external device; establishing a connection with respect to the at least one external device based on the connection information; and executing the application with the at least one external device, wherein the application is executed based on the information about the application.
An absorbent article comprising: a liquid permeable topsheet; a liquid impermeable backsheet; an absorbent core disposed at least partially intermediate the topsheet and the backsheet; and an acquisition material disposed at least partially intermediate the topsheet and the absorbent core; wherein the acquisition material has: a Caliper in the range of about 2.5 mm to about 10 mm, according to the Caliper Test; and an Air Permeability in the range of about 5,000 l/m 2 /s to about 11,000 l/m 2 /s, according to the Air Permeability Test; wherein the acquisition material comprises: a first surface; a second surface; and three-dimensional features extending outwardly from the first surface; wherein the acquisition material comprises two or more layers; wherein the first layer and the second layer comprise the three-dimensional features, and wherein tips of the three-dimensional features of the first layer are joined with tips of the three-dimensional features of the second layer. a liquid permeable topsheet; a liquid impermeable backsheet; an absorbent core disposed at least partially intermediate the topsheet and the backsheet; and an acquisition material disposed at least partially intermediate the topsheet and the absorbent core; wherein the acquisition material has: a Caliper in the range of about 2.5 mm to about 10 mm, according to the Caliper Test; and an Air Permeability in the range of about 5,000 l/m 2 /s to about 11,000 l/m 2 /s, according to the Air Permeability Test; a Caliper in the range of about 2.5 mm to about 10 mm, according to the Caliper Test; and an Air Permeability in the range of about 5,000 l/m 2 /s to about 11,000 l/m 2 /s, according to the Air Permeability Test; wherein the acquisition material comprises: a first surface; a second surface; and three-dimensional features extending outwardly from the first surface; a first surface; a second surface; and three-dimensional features extending outwardly from the first surface; wherein the acquisition material comprises two or more layers; wherein the first layer and the second layer comprise the three-dimensional features, and wherein tips of the three-dimensional features of the first layer are joined with tips of the three-dimensional features of the second layer.
A method of driving a multiple-partition dynamic backlight, characterised in that, the method comprises: obtaining a first vertical synchronization signal according to an input image transmitted by a scan chip; obtaining a third vertical synchronization signal meeting a processor output standard according to the first vertical synchronization signal, wherein the processor output standard indicates a processor frequency output standard; generating a first level signal with a time duration of n ∗ T1 when detecting a rising or falling edge of the third vertical synchronization signal, and generating a second level signal with a duration which begins from an end time of the first level signal to a time of detecting a next rising or falling edge of the third synchronization signal, wherein T1 is a cycle of a target signal, and n is determined by a multiplication relationship between a cycle of the third vertical synchronization signal and a cycle of the target signal n is a positive integer, wherein the target signal is a line synchronization signal; transmitting the first level signal and the second level signal to a drive chip, so that the drive chip generates a PWM signal according to the first level signal and the second level signal, wherein a second vertical synchronization signal is generated according to the duration of the first level signal and the duration of the second level signal. obtaining a first vertical synchronization signal according to an input image transmitted by a scan chip; obtaining a third vertical synchronization signal meeting a processor output standard according to the first vertical synchronization signal, wherein the processor output standard indicates a processor frequency output standard; generating a first level signal with a time duration of n ∗ T1 when detecting a rising or falling edge of the third vertical synchronization signal, and generating a second level signal with a duration which begins from an end time of the first level signal to a time of detecting a next rising or falling edge of the third synchronization signal, wherein T1 is a cycle of a target signal, and n is determined by a multiplication relationship between a cycle of the third vertical synchronization signal and a cycle of the target signal n is a positive integer, wherein the target signal is a line synchronization signal; transmitting the first level signal and the second level signal to a drive chip, so that the drive chip generates a PWM signal according to the first level signal and the second level signal, wherein a second vertical synchronization signal is generated according to the duration of the first level signal and the duration of the second level signal.
A method of making a slit tape or tow suitable for Automated Tape Laying or Automated Fiber Placement, the method comprising: laminating a ply of structural fibers to a nonwoven veil of randomly arranged fibers to form a laminated structure; coating the laminated structure with a water-borne binder composition comprising one or more polymers selected from polyhydroxyethers, polyurethanes, a mixture thereof, a copolymer thereof, or a reaction product thereof in combination with a crosslinker and optionally a catalyst; and slitting the coated structure into tapes or tows. laminating a ply of structural fibers to a nonwoven veil of randomly arranged fibers to form a laminated structure; coating the laminated structure with a water-borne binder composition comprising one or more polymers selected from polyhydroxyethers, polyurethanes, a mixture thereof, a copolymer thereof, or a reaction product thereof in combination with a crosslinker and optionally a catalyst; and slitting the coated structure into tapes or tows.
An air-trap chamber connected to a liquid flow route in which a predetermined liquid is made to flow, the air-trap chamber including a chamber portion capable of storing the predetermined liquid by a predetermined amount, a liquid inlet from which the predetermined liquid in the liquid flow route is allowed to be introduced into the chamber portion, and a liquid outlet from which the predetermined liquid in the chamber portion is allowed to be discharged into the liquid flow route, the air-trap chamber being configured to collect and remove air bubbles contained in the predetermined liquid stored in the chamber portion, the air-trap chamber comprising: a guiding member that allows the predetermined liquid introduced from the liquid inlet to flow upward and then to flow downward into the chamber portion, wherein the guiding member is a wall part formed at a peripheral edge of an opening that allows the predetermined liquid to flow downward into the chamber portion, and an air-layer portion on an upper side and a middle portion interposed between the air-layer portion and the chamber portion, the air-trap chamber being characterized in that the opening is provided in the middle portion and is provided at a position decentered with respect to the middle portion, so that the liquid flow route at a side opposite the side where the predetermined liquid is introduced from the liquid inlet is narrowed gradually. a guiding member that allows the predetermined liquid introduced from the liquid inlet to flow upward and then to flow downward into the chamber portion, wherein the guiding member is a wall part formed at a peripheral edge of an opening that allows the predetermined liquid to flow downward into the chamber portion, and an air-layer portion on an upper side and a middle portion interposed between the air-layer portion and the chamber portion, the air-trap chamber being characterized in that the opening is provided in the middle portion and is provided at a position decentered with respect to the middle portion, so that the liquid flow route at a side opposite the side where the predetermined liquid is introduced from the liquid inlet is narrowed gradually.
A pair of sliding components (3, 5) having sliding surfaces that slide with respect to each other, at least the sliding surface on one side includes dimples of which the planar shape of the dimples is a circle, an ellipse, or an oval, the dimples being grouped in random dimple groups (11; 21; 31; 41; 51; 52) in which plural of the dimples are randomly arranged, and land portions (15; 25; 35; 45; 55; 56) that partition radial portions (11a, 11b; 21a, 21b; 31a, 31b; 41a, 41b; 51a, 51b; 52a, 52b) of the random dimple groups (11; 21; 31; 41; 51; 52), characterized in that the random dimple groups (11; 21; 31; 41; 51; 52) are formed by arranging the dimples over the entire length from an inner peripheral portion to an outer peripheral portion of the sliding surface, and the land portions (15; 25; 35; 45; 55; 56) are formed over the entire length from the inner peripheral portion to the outer peripheral portion of the sliding surface. characterized in that the random dimple groups (11; 21; 31; 41; 51; 52) are formed by arranging the dimples over the entire length from an inner peripheral portion to an outer peripheral portion of the sliding surface, and the land portions (15; 25; 35; 45; 55; 56) are formed over the entire length from the inner peripheral portion to the outer peripheral portion of the sliding surface.