mhurhangee/ep-ind-claims huggingface dataset:
Removable platform escapement assembly for a timepiece movement, including an oscillator or a sprung balance assembly, in turn comprising at least one balance spring and at least one balance fitted with a roller, and an escape wheel controlled by a pallet lever, arranged to cooperate with said roller, wherein said platform escapement assembly includes an escapement bridge in turn comprising, on either side of a bottom surface fitted with guide bearings, a first and a second spacer respectively comprising a first and a second bearing surface for receiving a first and a second complementary surface comprised in a balance cock on either side of a top surface fitted with guide bearings, said balance cock being positioned relative to said escapement bridge by first and second positioning means, respectively arranged on said first and said second bearing surfaces, and said top surface of said balance cock being more flexible in bending than said bottom surface of said escapement bridge, so as to allow mobility, as a result of a force applied perpendicularly to said top surface, of said first complementary surface relative to said first bearing surface when said second complementary surface is held locked in position on said second bearing surface, or vice versa, characterized in that in that said bottom surface is fitted with a balance spring stud for securing said at least one balance spring, a bottom balance bearing for guiding a bottom balance pivot of said balance, a bottom pallet lever bearing for guiding a bottom pallet lever pivot of said pallet lever, and a bottom escapement bearing for guiding a bottom escapement pivot of said escape wheel, and in that said top surface is provided with a top balance bearing for guiding a top balance pivot of said balance, a top pallet lever bearing for guiding a top pallet lever pivot of said pallet lever and a top escapement bearing for guiding a top escapement pivot of said escape wheel.
Drawer wall element for a drawer, on which an edge portion of a drawer base can be installed in order to form a drawer side wall adjoining the drawer base, wherein the drawer wall element comprises a profiled wall part and a profiled base-receiving part, wherein a support surface which is provided on the profiled base-receiving part is provided on the drawer wall element in order to support the underside of the drawer base which can be installed on the drawer wall element, and wherein the profiled wall part comprises a chamber portion having an inner wall sheet metal portion and an outer wall sheet metal portion, which are spaced apart opposite one another across a width dimension of the drawer wall element and are connected by a bent section (8, 8a, 8b), characterised in that a bearing portion is provided which is angled upwards towards the support surface, and in that a web portion is provided on the profiled base-receiving part above and at a distance from the support surface, the web portion adjoining the bearing portion by means of a bent material section, wherein in the support surface and/or in the web portion at least one freely resilient tab is provided which protrudes past the surface of the support surface or the side of the web portion facing the support surface.
A therapy electrode (200, 400) configured to be used with a defibrillator device, comprising: a circuit (202, 402) disposed on a first surface (204, 404) of the therapy electrode; a gel disposed on a second surface (206, 414) of the therapy electrode substantially opposite the first surface; a gel integrity sensor (210, 418) disposed on the second surface of the therapy electrode and in physical contact with the gel, the gel integrity sensor communicatively coupled to the circuit; and a connector (212, 420) configured to electrically connect the therapy electrode to the defibrillator device and communicatively coupled to the circuit. a circuit (202, 402) disposed on a first surface (204, 404) of the therapy electrode; a gel disposed on a second surface (206, 414) of the therapy electrode substantially opposite the first surface; a gel integrity sensor (210, 418) disposed on the second surface of the therapy electrode and in physical contact with the gel, the gel integrity sensor communicatively coupled to the circuit; and a connector (212, 420) configured to electrically connect the therapy electrode to the defibrillator device and communicatively coupled to the circuit.
A method for transmitting baseband signals, applied in a distributed system, wherein the distributed system includes multiple baseband units, BBUs, and multiple remote radio frequency units, RRUs, wherein each BBU corresponds to an area covered by multiple RRUs, the method comprising: when downlink traffic volume in an area covered by the multiple RRUs is lower than a preset threshold, generating, by one of the BBUs, one group of downlink baseband signals, wherein the group of downlink baseband signals correspond to all RRUs in the area; and transmitting, by a BBU corresponding to the area, the group of downlink baseband signals to each RRU in the area, so that each RRU generates downlink radio frequency signals based on the downlink baseband signals and sends the downlink radio frequency signals; wherein, the step of generating the group of downlink baseband signals comprises: generating the group of downlink baseband signals according to the number of antennas in an RRU that has fewest antennas among all RRUs in the area; wherein, the group of downlink baseband signals comprise k paths of downlink baseband signals, and the k is a natural number and indicates the number of antennas in the RRU that has the fewest antennas among all the RRUs. when downlink traffic volume in an area covered by the multiple RRUs is lower than a preset threshold, generating, by one of the BBUs, one group of downlink baseband signals, wherein the group of downlink baseband signals correspond to all RRUs in the area; and transmitting, by a BBU corresponding to the area, the group of downlink baseband signals to each RRU in the area, so that each RRU generates downlink radio frequency signals based on the downlink baseband signals and sends the downlink radio frequency signals; wherein, the step of generating the group of downlink baseband signals comprises: generating the group of downlink baseband signals according to the number of antennas in an RRU that has fewest antennas among all RRUs in the area; wherein, the group of downlink baseband signals comprise k paths of downlink baseband signals, and the k is a natural number and indicates the number of antennas in the RRU that has the fewest antennas among all the RRUs.
Wave energy recovery apparatus with a power-take-off arrangement comprising at least a base, a reciprocating panel capable of rotating in one direction and in an opposite direction, two power-take-off units each PTO unit comprising one or more generators to convert kinetic energy of waves or tidal currents to electricity, at least two gear transmissions and at least two one-way clutch mechanisms where the gear transmissions and one-way clutch mechanisms are operatively connected between the panel and the generators, and the panel is arranged to rotate a half of the gears and generators when the panel is rotating into the one direction and another half of the gears and generators when the panel is rotating into the opposite direction, characterized in that two or more generators that are fastened to a lower edge of the panel and are arranged to be rotated by the panel, and that the apparatus comprises a gear transmission for each generator, which gear transmission comprises a motionless gear rim meshing with a gearwheel coupled to a rotation axle of the generator.
Pharmaceutical preparation for inhalation, comprising firoin, firoin-A, diglycerol phosphate, cyclic diphosphoglycerate, 1,3 dimannosyl di-myo-inositol phosphate (DMIP), diinositol phosphate and/or pharmacologically acceptable salts thereof for use in the treatment or prophylaxis of diseases caused by the effects of suspended particulate on the tissue of the lungs and/or the cardiovascular diseases that are related to them.
A mechanism for assembling groups of filter segments for producing multiple segment filters of the tobacco processing industry in a continuous strand process, comprising an assembly device for assembling filter segments into groups of filter segments, a first feeding magazine for filter rods, and a first filter segment feeding device between the first feeding magazine and the assembly device, as well as a second feeding magazine for filter rods, and a second filter segment feeding device between the second feeding magazine and the assembly device, wherein each feeding magazine (10, 20, 30) can be filled through an opening on a top surface of the feeding magazine (10, 20, 30) by means of cradles that have a removable bottom, wherein in each case filter rods can be removed at a bottom surface of the corresponding feeding magazine (10, 20, 30), the filter rods can be processed into filter segments, and the filter segments can be fed to the assembly device by means of a filter segment feeding device (11, 21, 31), characterized in that the mechanism comprises a third feeding magazine for filter rods and a third filter segment feeding device between the third feeding magazine and the assembly device, wherein the feeding magazines (10, 20, 30) are arranged in a row with a middle and two outer feeding magazines (10, 20, 30), wherein the third feeding magazine is one of the two outer feeding magazines and is offset in height relative to the middle feeding magazine, wherein a first free space (12, 22, 32) is provided for a cradle and a second free space (14, 24, 34) is provided next to the first free space (12, 22, 32) for the bottom of the cradle above each feeding magazine (10, 20, 30), wherein the first free space of the third feeding magazine, which is an outer feeding magazine, is arranged below the second free space of the middle feeding magazine.
A storage control device comprising: a first read processing unit configured, in response to a write command requesting that write data is written to a memory cell, to read data previously stored in the memory cell based on a first threshold value in a memory cell, the data being read as first read data and having one of a first value and a second value, wherein the memory cell is a variable resistance element; a first write processing unit configured to rewrite the memory cell to the first value when the write data is the first value and the first read data is the second value; a second read processing unit configured, in response to said write command, to read the data previously stored in the memory cell based on a second threshold value different from the first threshold value, the data being read as second read data; and a second write processing unit configured to rewrite the memory cell to the second value when the write data is the second value and the second read data is the first value; wherein the first threshold value is set to a higher resistance state side than a standard threshold value, and wherein the second threshold value is set to a lower resistance state side than the standard threshold value. a first read processing unit configured, in response to a write command requesting that write data is written to a memory cell, to read data previously stored in the memory cell based on a first threshold value in a memory cell, the data being read as first read data and having one of a first value and a second value, wherein the memory cell is a variable resistance element; a first write processing unit configured to rewrite the memory cell to the first value when the write data is the first value and the first read data is the second value; a second read processing unit configured, in response to said write command, to read the data previously stored in the memory cell based on a second threshold value different from the first threshold value, the data being read as second read data; and a second write processing unit configured to rewrite the memory cell to the second value when the write data is the second value and the second read data is the first value; wherein the first threshold value is set to a higher resistance state side than a standard threshold value, and wherein the second threshold value is set to a lower resistance state side than the standard threshold value.
A microcapsule comprising an emulsion droplet encapsulated by a metallic film, wherein the emulsion droplet comprises an emulsifier disposed around a liquid core material, wherein the emulsifier comprises nanoparticles of a first metal and polymeric stabilizer, wherein the nanoparticles are sterically-stabilized by the polymeric stabilizer, wherein the metallic film comprises a layer of a second metal, and wherein the metallic film is formed directly on said emulsion droplet, wherein the liquid core material comprises a volatile material.
A control and data transmission system for transmitting safety-related data via a communication medium, comprising: - a plurality of safe signal units (340, 360, 380), each of which is connected to a safety-critical process (432, 434; 436) via at least one output (341, 346; 361, 366; 381, 386) and/or at least one input (345; 365; 385); - a communication medium to which the safe signal units (340, 360, 380) are connected; and - a central device (320; 420) which is connected to the communication medium, wherein the safe signal units (340, 360, 380) each comprise a safety device (343; 363; 383) and each are adapted to provide safety-related data and to transmit these data in a first subfield (442; 453 1) of a respective telegram or sum frame via the communication medium; characterized in that each safe signal unit (340, 360, 380) is adapted to provide a defined signal which indicates an error-free control and data transmission system or which indicates that no safety function has been triggered, and to write the defined signal into a second subfield (443; 453 2) of the respective telegram or sum frame, and to transmit both the defined signal and the safety-related data to the central device (320; 420); that the central device (320; 420) is adapted to read out and evaluate only the second subfield of the respective telegram or sum frame, and to generate a central control command in response to the evaluated defined signal, and to transmit the central control command together with the safety-related data to at least one predetermined safe signal unit of the plurality of safe signal units (340, 360, 380); and that the at least one safe signal unit (340, 360, 380) is adapted to evaluate the safety-related data and the central control command for controlling at least part of the safety-critical process (432, 434, 436). - a plurality of safe signal units (340, 360, 380), each of which is connected to a safety-critical process (432, 434; 436) via at least one output (341, 346; 361, 366; 381, 386) and/or at least one input (345; 365; 385); - a communication medium to which the safe signal units (340, 360, 380) are connected; and - a central device (320; 420) which is connected to the communication medium, wherein the safe signal units (340, 360, 380) each comprise a safety device (343; 363; 383) and each are adapted to provide safety-related data and to transmit these data in a first subfield (442; 453 1) of a respective telegram or sum frame via the communication medium;
A device for measurement of physical quantities of a rotating mechanical element, said device comprising an electronic measurement module and a receiving stationary electronic module, where transmission of signal and energy between the electronic measurement module and the receiving stationary electronic module is realized by a contactless transmission, wherein said contactless transmission of signal is realized by means of a capacitive coupling and the contactless transmission of energy by means of an inductive coupling, wherein the receiving stationary electronic module, relative to which the electronic measurement module is configured to rotate, comprises one or more magnetic field sources for contactless power transmission; wherein the electronic measurement module is configured to be attached to the rotating mechanical element and adapted to process signals from one or more sensors 1-n configured to be attached to the rotating mechanical element, wherein said sensors 1-n are connectable to the electronic measurement module, the electronic measurement module having a power supply circuit adapted to provide power to the sensors 1-n and to a circuitry of the electronic measurement module and one or more receiving coils connected via their terminals to the power supply circuit, characterized in that the electronic measurement module comprises a pair of transmitting electrodes adapted for differential capacitive signal transmission, wherein the receiving stationary electronic module comprises a pair of receiving electrodes adapted for differential capacitive signal reception of a signal sent from the pair of transmitting electrodes, wherein the contactless transmission of signal and energy occurs periodically in a time interval T mj of a rotation period during which the electronic measurement module and the receiving stationary electronic module are in proximity and the one or more receiving coils and the pair of transmitting electrodes are in proximity with the pair of receiving electrodes and the magnetic field source, and the power supply circuit further comprises a capacitor configured for storing a surplus of the energy collected during one rotation and for providing the energy to the sensors 1-n and the circuitry of the electronic measurement module during a time interval when the electronic measurement module and the stationary electronic module are not in close proximity.
A patient bed system comprising: a patient bed comprising a frame and a port coupled to the frame, the frame including a siderail extending upwardly with respect to a patient support surface carried by the frame, the port being carried on the siderail; bed control software; a handheld electronic device, comprising a phone or a tablet computer, wherein, the system is configured such that the port is connectable to the handheld electronic device to recharge the handheld electronic device and to download the bed control software to the handheld electronic device so that the portable handheld electronic device is usable to control features of the patient bed; and the patient bed further comprises user inputs coupled to the siderail (740, 946) to control one or more features of the patient bed, controls provided on the handheld electronic device including the bed control software also being provided by said user inputs on the siderail. a patient bed comprising a frame and a port coupled to the frame, the frame including a siderail extending upwardly with respect to a patient support surface carried by the frame, the port being carried on the siderail; bed control software; a handheld electronic device, comprising a phone or a tablet computer, wherein, the system is configured such that the port is connectable to the handheld electronic device to recharge the handheld electronic device and to download the bed control software to the handheld electronic device so that the portable handheld electronic device is usable to control features of the patient bed; and the patient bed further comprises user inputs coupled to the siderail (740, 946) to control one or more features of the patient bed, controls provided on the handheld electronic device including the bed control software also being provided by said user inputs on the siderail.
A gate driver circuit comprising: a high side portion and a low side portion, each of said high side and low side portions comprising: a power transistor (M H, M L) having a gate terminal; a first switch and a second switch (S CHN, M LN); and characterised by a comparator (COMP) arranged to detect a voltage at the gate terminal; wherein said comparator is further arranged to generate a control signal to switchably operate said first and said second switches such that said gate terminal is switched between a first and a second voltage, and wherein the first voltage is a supply voltage and the second voltage is a high impedance reference voltage. a high side portion and a low side portion, each of said high side and low side portions comprising: a power transistor (M H, M L) having a gate terminal; a first switch and a second switch (S CHN, M LN); and characterised by a comparator (COMP) arranged to detect a voltage at the gate terminal; wherein said comparator is further arranged to generate a control signal to switchably operate said first and said second switches such that said gate terminal is switched between a first and a second voltage, and wherein the first voltage is a supply voltage and the second voltage is a high impedance reference voltage. a power transistor (M H, M L) having a gate terminal; a first switch and a second switch (S CHN, M LN); and characterised by a comparator (COMP) arranged to detect a voltage at the gate terminal; wherein said comparator is further arranged to generate a control signal to switchably operate said first and said second switches such that said gate terminal is switched between a first and a second voltage, and wherein the first voltage is a supply voltage and the second voltage is a high impedance reference voltage.
A method for producing an agent for hypodermic injection, wherein the agent comprises a hydrogel containing sintered hydroxyapatite particles, the production method comprises a deaeration step for removing air contained in the agent, the deaeration step is carried out by applying the agent to a centrifuge under reduced pressure, and the hydrogel is a carboxymethylcellulose gel.
A protective package assembly for a household appliance, in particular a refrigeration appliance comprising: a rectangular shaped main body which includes: a refrigeration compartment, and a door for accessing the refrigeration compartment, the protective package assembly comprising one or more than one corner segment (5a, 5b, 5c), wherein each corner segment (5a, 5b, 5c) is configured to extend along a respective corner section (6a, 6b, 6c) of the main body, and wherein each corner segment (5a, 5b, 5c) has an inner surface which is configured to face the outer surface of the respective corner section (6a, 6b, 6c) of the main body, wherein one or more than one indentation is formed into the inner surface of one or more than one corner segment (5a, 5b, 5c), wherein each indentation has a lateral opening to the outside and wherein a plurality of indentations are sequentially formed at predetermined intervals into the inner surface of each of the two front vertical corner segments, characterized in that - a plurality of indentations are sequentially formed into each of the two top horizontal corner segments, - a plurality of recesses are formed into the front side of each of the two front vertical corner segments, wherein the recesses are located centered within the predetermined intervals and are formed into said front side, - each recess has a rectangular cross section with rounded corners. - a plurality of indentations are sequentially formed into each of the two top horizontal corner segments, - a plurality of recesses are formed into the front side of each of the two front vertical corner segments, wherein the recesses are located centered within the predetermined intervals and are formed into said front side, - each recess has a rectangular cross section with rounded corners.
A chuck for the bonding of a plurality of semiconductor dies to a target wafer, said chuck comprising a plurality of die placement sites (4,5), said die placement sites comprising on their surface a resilient film, characterized in that said resilient film consists of carbon nanotubes, CNTs, said CNTs being attached to the surface of the die placement sites at one end and extending outwards from said surface.