mhurhangee/ep-ind-claims huggingface dataset:
A kit of parts for preparing a glass ionomer composition for dental use, the kit comprising a Paste A and a Paste B, Paste A comprising: water, acid-reactive inorganic filler A, non acid-reactive filler B1, sugar alcohol with 6 hydroxyl moieties, Paste B comprising: water, polyacid, non acid-reactive filler B2, the ratio of sugar alcohol to water in Paste A being in a range of 1:10 to 1:3 in parts by weight, the sugar alcohol being present in an amount of not more than 2 wt.% and the water being present in an amount of not more than 15 wt.%, wt.% with respect to the whole composition obtained when mixing Paste A and Paste B. Paste A comprising: water, acid-reactive inorganic filler A, non acid-reactive filler B1, sugar alcohol with 6 hydroxyl moieties, water, acid-reactive inorganic filler A, non acid-reactive filler B1, sugar alcohol with 6 hydroxyl moieties, Paste B comprising: water, polyacid, non acid-reactive filler B2, water, polyacid, non acid-reactive filler B2, the ratio of sugar alcohol to water in Paste A being in a range of 1:10 to 1:3 in parts by weight, the sugar alcohol being present in an amount of not more than 2 wt.% and the water being present in an amount of not more than 15 wt.%, wt.% with respect to the whole composition obtained when mixing Paste A and Paste B.
A multilayer heat-shrinkable film comprising: a first layer comprising a first polyester, the first layer being an outer layer; a second layer which serves as an O 2 -barrier layer, the second layer comprising at least one member selected from the group consisting of saponified ethylene/vinyl acetate copolymer, polyamide MXD6, polyamide 6I/6T, polyamide 6, polyvinylidene chloride, and liquid crystal polymer; a third layer between the first layer and the second layer, the third layer serving as a tie layer, the third layer comprising at least one styrene-based copolymer; wherein the tie layer comprises an anhydride functional styrene-based polymer if the tie layer is directly adhered to both the outer polyester layer and an internal polyamide layer; and wherein the multilayer heat shrinkable film exhibits a total free shrink at 85°C of at least 10% measured in accordance with a modified free shrink test otherwise in accordance with ASTM D 2732, by marking a 10cm by 10cm square on a 15cm by 15cm film sample with a 25mm border outside the 10cm marking, shrinking in accordance with ASTM D2732, and measuring the marked area after shrinking, and the polyester is present in the film in an amount of at least 2 vol %, based on total film volume. a first layer comprising a first polyester, the first layer being an outer layer; a second layer which serves as an O 2 -barrier layer, the second layer comprising at least one member selected from the group consisting of saponified ethylene/vinyl acetate copolymer, polyamide MXD6, polyamide 6I/6T, polyamide 6, polyvinylidene chloride, and liquid crystal polymer; a third layer between the first layer and the second layer, the third layer serving as a tie layer, the third layer comprising at least one styrene-based copolymer;
Cable transportation facility comprising: - a first end pulley, - a second end pulley, - a relay structure provided with a first return pulley and a second return pulley, - a first cable loop interlocked with the first end pulley and the first return pulley, - a second cable loop interlocked with the second end pulley and the second return pulley, - at least one vehicle capable of being coupled alternately to the first cable loop and to the second cable loop by disengageable coupling means, the relay structure comprising means for transferring the vehicle decoupled from the first cable loop and from the second cable loop, from the first cable loop to the second cable loop; the relay structure also comprising a stationary guide track which supports a structure that is mobile in translation relative to the stationary guide track, the movable structure carrying the first return pulley and the second return pulley, the cable transportation facility being characterised in that the mobile structure also carries the vehicle transfer means. - a first end pulley, - a second end pulley, - a relay structure provided with a first return pulley and a second return pulley, - a first cable loop interlocked with the first end pulley and the first return pulley, - a second cable loop interlocked with the second end pulley and the second return pulley, - at least one vehicle capable of being coupled alternately to the first cable loop and to the second cable loop by disengageable coupling means, the relay structure comprising means for transferring the vehicle decoupled from the first cable loop and from the second cable loop, from the first cable loop to the second cable loop; the relay structure also comprising a stationary guide track which supports a structure that is mobile in translation relative to the stationary guide track, the movable structure carrying the first return pulley and the second return pulley, the cable transportation facility being characterised in that the mobile structure also carries the vehicle transfer means.
A two-way ceiling-mounted air conditioner having a rectangular shape in a planar view, the air conditioner comprising: a decorative panel having indoor outlets configured to blow out temperature-controlled air into an interior of a room and an indoor inlet configured to draw in indoor air; and a rectangular-parallelepiped-shaped product main body accommodating a mechanical fan and heat exchangers, the air conditioner being characterized in that the indoor outlets in the decorative panel are two in number and are formed along opposite long sides of the decorative panel, the mechanical fan is a centrifugal fan located in the product main body such that the mechanical fan has a rotation axis oriented in a vertical direction, the heat exchangers include two branch heat exchangers each located between one of the two indoor outlets and the mechanical fan such that the mechanical fan is located between the branch heat exchangers in a planar view, each of the two branch heat exchangers is divided into a first end portion, an intermediate portion, and a second end portion in a longitudinal direction, wherein at the first end portion, a refrigerant passage of the branch heat exchangers is connected to an external refrigerant pipe, at the second end portion, the refrigerant passage is turned, and the intermediate portion is arranged in parallel with the indoor outlets, and the first end portions and the second end portions are bent toward the mechanical fan, characterized in that the first end portions and the second end portions are bent at different angles in relation to the intermediate portion. a decorative panel having indoor outlets configured to blow out temperature-controlled air into an interior of a room and an indoor inlet configured to draw in indoor air; and a rectangular-parallelepiped-shaped product main body accommodating a mechanical fan and heat exchangers, the air conditioner being characterized in that the indoor outlets in the decorative panel are two in number and are formed along opposite long sides of the decorative panel, the mechanical fan is a centrifugal fan located in the product main body such that the mechanical fan has a rotation axis oriented in a vertical direction, the heat exchangers include two branch heat exchangers each located between one of the two indoor outlets and the mechanical fan such that the mechanical fan is located between the branch heat exchangers in a planar view, each of the two branch heat exchangers is divided into a first end portion, an intermediate portion, and a second end portion in a longitudinal direction, wherein at the first end portion, a refrigerant passage of the branch heat exchangers is connected to an external refrigerant pipe, at the second end portion, the refrigerant passage is turned, and the intermediate portion is arranged in parallel with the indoor outlets, and the first end portions and the second end portions are bent toward the mechanical fan,
Laundry care appliance with an outer tub for receiving wash liquid, a drain opening arranged on the outer tub for discharging wash liquid, wherein the drain opening is fluidically connected to a drain line, wherein the drain line is connected to a pump, wherein the pump is embodied to pump wash liquid through the drain opening and through the drain line and out of the laundry care appliance, a power detection element for detecting an electrical power value of the pump, and with a controller for controlling the pump, characterised in that the controller is embodied to determine a wash liquid column oscillating in the drain line during a first period of time when the electrical power value detected by the power detection element exceeds an electrical oscillation reference power value, the controller is embodied to reduce a pump power of the pump to a reduced pump power during a second period of time following the first period of time, wherein, while operating the pump at a reduced pump power, the electrical power value detected by the power detection element falls below the electrical oscillation reference power value, in order to reduce the oscillation of the wash liquid column in the drain line, and the controller is embodied to determine an inflow of wash liquid into the drain line during a third period of time following the second period of time when the electrical power value detected by the power detection element exceeds an electrical inflow reference power value.
Hand-held hot air device, preferably for the local heating of thermoplastic materials, with a housing that forms a wand-shaped handle part with air inlet openings, and with an air guidance tube that protrudes from the handle part and radially delimits an air canal, with an electric heating element contained in the air guidance tube and an electric motor with a fan wheel contained in the handle part, and with an electronic control system arranged inside the handle part with one semiconductor power switch each arranged upstream of the heating element and the electric motor, and with a display screen and an operating device for the hand-held hot air device arranged on the outside of the handle part, characterized in that the electronic control system is implemented as microprocessor control system and the display screen as an electronic digital display and the operating device as a digital operating device, with the digital operating device, characterized in that the digital operating device comprises a single universal operating element that is movable in at least two directions relative to the handle part for the purpose of switching the hand-held hot air device on and off and for determining control data of the microprocessor control system, and the universal operating element can be shifted axially and/or rotated in the circumferential direction.
A method for robotically wiring electrical components of an electrical switchgear arranged on a mounting plate, comprising the steps: - Providing a design of a switchgear having at least location information and orientation information about a plurality of electrical components of the switchgear on a mounting plate and wiring information about a plurality of electrical wirings between every two of the electrical components; - Extracting a cable routing including a cable source coordinate, a cable destination coordinate, and a routing path between the cable source coordinate and the cable destination coordinate from the wiring information for at least one of the plurality of wirings; - Generating trajectory and/or vector points along the cable routing and parameterizing the trajectory and/or vector points to generate a robot control; and - Controlling a robot with the robot control; characterized by applying a test routine to the wiring information to determine a degree of automation of the wirings, and optionally adjusting the wiring information to maximize the degree of automation. - Providing a design of a switchgear having at least location information and orientation information about a plurality of electrical components of the switchgear on a mounting plate and wiring information about a plurality of electrical wirings between every two of the electrical components; - Extracting a cable routing including a cable source coordinate, a cable destination coordinate, and a routing path between the cable source coordinate and the cable destination coordinate from the wiring information for at least one of the plurality of wirings; - Generating trajectory and/or vector points along the cable routing and parameterizing the trajectory and/or vector points to generate a robot control; and - Controlling a robot with the robot control;
A method of exchanging data between a base station and a mobile station, said data being exchanged in packets, said method comprising the steps of: - receiving a packet from the mobile station; - decoding said packet; - determining whether to transmit to the mobile station a resource allocation message on a physical downlink control channel; - if said resource allocation message is transmitted, further transmitting to the mobile station a first indicator signal on an indicator channel, wherein the resource allocation message comprises an indication of a zero-size resource allocation; and wherein the first indicator signal comprises a positive acknowledgment or no transmission; characterized by - if both the decoding has not been successful and the said resource allocation message is not transmitted, transmitting to the mobile station a second indicator signal on the indicator channel; - wherein the second indicator signal comprises a negative acknowledgment. - receiving a packet from the mobile station; - decoding said packet; - determining whether to transmit to the mobile station a resource allocation message on a physical downlink control channel; - if said resource allocation message is transmitted, further transmitting to the mobile station a first indicator signal on an indicator channel, wherein the resource allocation message comprises an indication of a zero-size resource allocation; and wherein the first indicator signal comprises a positive acknowledgment or no transmission; characterized by - if both the decoding has not been successful and the said resource allocation message is not transmitted, transmitting to the mobile station a second indicator signal on the indicator channel; - wherein the second indicator signal comprises a negative acknowledgment.
A method for maintaining time synchronization between network nodes in a wireless communication network, the method comprising: broadcasting a timing signal from a source node to neighboring nodes subsequent to an initial synchronization of the source node with respect to the neighboring nodes, the timing signal being broadcast in a dedicated source time slot of a super epoch comprising a plurality of epochs each having a plurality of fixed time slots, wherein the timing signal indicates a transmission time of the timing signal and a destination node designated for response; receiving a reply timing signal at the source node from the neighboring node designated as the destination node, the reply timing signal being received after a known turn-around time at the destination node in a dedicated destination time slot of the super epoch, wherein the reply timing signal indicates a transmission time of the reply timing signal; computing at the source node a propagation delay (d t) between the source and destination nodes based on the transmission time of the timing signal, a reception time of the reply timing signal and the known turn-around time independent from values received in the delay timing signal; and computing at the source node a clock drift (c) based on the transmission time of the timing signal, the transmission time of the reply timing signal, and the reception time of the reply timing signal. broadcasting a timing signal from a source node to neighboring nodes subsequent to an initial synchronization of the source node with respect to the neighboring nodes, the timing signal being broadcast in a dedicated source time slot of a super epoch comprising a plurality of epochs each having a plurality of fixed time slots, wherein the timing signal indicates a transmission time of the timing signal and a destination node designated for response; receiving a reply timing signal at the source node from the neighboring node designated as the destination node, the reply timing signal being received after a known turn-around time at the destination node in a dedicated destination time slot of the super epoch, wherein the reply timing signal indicates a transmission time of the reply timing signal; computing at the source node a propagation delay (d t) between the source and destination nodes based on the transmission time of the timing signal, a reception time of the reply timing signal and the known turn-around time independent from values received in the delay timing signal; and computing at the source node a clock drift (c) based on the transmission time of the timing signal, the transmission time of the reply timing signal, and the reception time of the reply timing signal.
A knitting machine, the knitting machine comprising: a needle bed; and carriage ( 420, 520) that is movable along the needle bed, the carriage configured to engage at least one feeder to move a dispensing area of the feeder along the needle bed while dispensing a yarn, characterised by an auxiliary transport device configured to move along a rail of the knitting machine, wherein the auxiliary transport device is actuated independently from the carriage, wherein the auxiliary transport device includes an interface for providing electric power to at least one electronic auxiliary component, wherein the at least one electronic auxiliary component is housed in and transported by the auxiliary transport device such that it moves along the needle bed with the auxiliary transport device, and wherein the at least one electronic auxiliary component includes a sensor configured to detect a displaced or broken needle (403, 503). a needle bed; and carriage ( 420, 520) that is movable along the needle bed, the carriage configured to engage at least one feeder to move a dispensing area of the feeder along the needle bed while dispensing a yarn, characterised by an auxiliary transport device configured to move along a rail of the knitting machine, wherein the auxiliary transport device is actuated independently from the carriage, wherein the auxiliary transport device includes an interface for providing electric power to at least one electronic auxiliary component, wherein the at least one electronic auxiliary component is housed in and transported by the auxiliary transport device such that it moves along the needle bed with the auxiliary transport device, and wherein the at least one electronic auxiliary component includes a sensor configured to detect a displaced or broken needle (403, 503).
A battery pack comprising: (i) a plurality of secondary batteries, each battery comprising: (a) a battery can serving as a positive electrode terminal or a negative electrode terminal, (b) an electrically conductive substrate provided at an outer portion of the battery can, and (c) a non-conductive film interposed between the battery can and the electrically conductive substrate in order to insulate the electrically conductive substrate from the battery can; and (ii) a non-conductive hard casing having the electrically conductive substrate of each of the secondary batteries attached to an inner wall thereof, the non-conductive hard casing surrounding at least a part of each secondary battery such that a part of two electrode terminals is exposed to the exterior; wherein: the electrically conductive substrate surrounds the battery can except for a part of the positive and negative electrode terminals of the battery, the electrically conductive substrate is electrically connected to an electrode terminal having opposite polarity to the battery can, the electrically conductive substrate has heat conductivity, and the non-conductive film has a melting temperature in the range of 100-200°C. (i) a plurality of secondary batteries, each battery comprising: (a) a battery can serving as a positive electrode terminal or a negative electrode terminal, (b) an electrically conductive substrate provided at an outer portion of the battery can, and (c) a non-conductive film interposed between the battery can and the electrically conductive substrate in order to insulate the electrically conductive substrate from the battery can; and (a) a battery can serving as a positive electrode terminal or a negative electrode terminal, (b) an electrically conductive substrate provided at an outer portion of the battery can, and (c) a non-conductive film interposed between the battery can and the electrically conductive substrate in order to insulate the electrically conductive substrate from the battery can; and (ii) a non-conductive hard casing having the electrically conductive substrate of each of the secondary batteries attached to an inner wall thereof, the non-conductive hard casing surrounding at least a part of each secondary battery such that a part of two electrode terminals is exposed to the exterior; the electrically conductive substrate surrounds the battery can except for a part of the positive and negative electrode terminals of the battery, the electrically conductive substrate is electrically connected to an electrode terminal having opposite polarity to the battery can, the electrically conductive substrate has heat conductivity, and the non-conductive film has a melting temperature in the range of 100-200°C.
Motor vehicle having several antennae (2, 3, 4, 5) and at least one communication device which is formed to provide at least one communication service (37, 38, 39, 40) to transmit transmission information (41, 51, 52, 52) allocated to the respective communication service (37, 38, 39, 40) and/or to receive reception information (50, 62) allocated to the respective communication service (37, 38, 39, 40) via at least one of the antennae (2, 3, 4, 5) respectively for a user and/or at least one further motor vehicle component (7, 8, 9, 10), wherein the motor vehicle has an allocated antenna circuit (11, 12, 13, 14) for each of the antennae (2, 3, 4, 5), which serves to translate an analogue reception signal (46, 47, 56, 57, 58) received by the antenna (2, 3, 4, 5) into digital reception data (48, 49, 59, 60, 61) allocated to the respective antenna circuit (11, 12, 13, 14) and/or from digital transmission data (42, 43, 54) allocated to the respective antenna circuit (11, 12, 13, 14) into an analogue transmission signal (44, 45, 55) supplied to the allocated antenna (2, 3, 4, 5), wherein the communication device is formed to generate the transmission data (42, 43, 54) allocated to at least one of the antenna circuits (11, 12, 13, 14) to transmit the transmission information (41, 51, 52, 53) depending on the transmission information (41, 51, 52) and to convey it to the respectively allocated antenna circuit (11, 12, 13, 14) and to receive the reception data (48, 49, 59, 60, 61) allocated to the antenna circuit (11, 12, 13, 14) or at least one further antenna circuit (11, 12, 13, 14) to receive a piece of reception information (50, 62) and to provide the piece of reception information (50, 62) depending on the reception data (48, 49, 59, 60, 61), characterised in that the communication device is formed to select one or more of the antennae (2, 3, 4, 5) to transmit the transmission information (41, 51, 52, 53) and/or to receive the reception information (50, 62) depending on an operating parameter of the communication device, wherein the number of antenna used by the communication service is variable over time.