mhurhangee/patent-ind-claim-en huggingface dataset:
Hob system comprising 1.1. a hob , having 1.1.1. a food carrier for carrying food to be cooked , 1.1.2. at least one heating unit , which is arranged on the food carrier , for heating the food , and 1.2. a fume extraction device for extracting cooking fumes downwards, having 1.2.1. at least one fan for extracting the cooking fumes, 1.2.2. at least one inflow opening that penetrates the food carrier , and 1.2.3. a vacuum duct section , which connects the at least one inflow opening in a fluid-conducting manner to the at least one fan , 1.3. wherein the at least one inflow opening is arranged spaced apart from an edge area of the food carrier , 1.4. wherein a total vertical height (H) of the hob system , with the food carrier , all of the heating units and the fume extraction device , is a maximum of 250 mm, and 1.5. wherein the hob system is embodied as an assembly unit comprising the hob and the fume extraction device , characterised in 1.6 that a total width (B) of the hob system is a maximum of 600 mm and 1.7. that the at least one fan overlaps the at least one heating unit and/or power electronics of the heating unit for supplying a heating element with electrical power in a plan view and in a side view and/or in a front view. 1.1. a hob , having 1.1.1. a food carrier for carrying food to be cooked , 1.1.2. at least one heating unit , which is arranged on the food carrier , for heating the food , and 1.1.1. a food carrier for carrying food to be cooked , 1.1.2. at least one heating unit , which is arranged on the food carrier , for heating the food , and 1.2. a fume extraction device for extracting cooking fumes downwards, having 1.2.1. at least one fan for extracting the cooking fumes, 1.2.2. at least one inflow opening that penetrates the food carrier , and 1.2.3. a vacuum duct section , which connects the at least one inflow opening in a fluid-conducting manner to the at least one fan , 1.2.1. at least one fan for extracting the cooking fumes, 1.2.2. at least one inflow opening that penetrates the food carrier , and 1.2.3. a vacuum duct section , which connects the at least one inflow opening in a fluid-conducting manner to the at least one fan , 1.3. wherein the at least one inflow opening is arranged spaced apart from an edge area of the food carrier , 1.4. wherein a total vertical height (H) of the hob system , with the food carrier , all of the heating units and the fume extraction device , is a maximum of 250 mm, and 1.5. wherein the hob system is embodied as an assembly unit comprising the hob and the fume extraction device , characterised in 1.6 that a total width (B) of the hob system is a maximum of 600 mm and 1.7. that the at least one fan overlaps the at least one heating unit and/or power electronics of the heating unit for supplying a heating element with electrical power in a plan view and in a side view and/or in a front view.
A negative active material, comprising: a composite core comprising a carbonaceous base, and a metal or metalloid nanostructure on the carbonaceous base, wherein the metal or metalloid nanostructure is in a form of a silicon-based nanowire comprising at least one material selected from the group consisting of Si, SiO x (0<x<2), Si-Z alloy, and combinations thereof, wherein Z is an alkali metal, an alkali earth metal, an element of Group 11, 12, 13, 14, 15, and 16 of the periodic table of elements, a transition metal, a rare-earth element, or a combination thereof, and is not Si; and a coating layer formed on at least a part of the composite core and comprising a metal oxide coating layer and an amorphous carbonaceous coating layer, wherein the metal oxide coating layer comprises or consists of an oxide of at least one metal selected from the group consisting of zinc (Zn), zirconium (Zr), nickel (Ni), cobalt (Co), manganese (Mn), boron (B), magnesium (Mg), calcium (Ca), strontium (Sr), barium (Ba), titanium (Ti), vanadium (V), iron (Fe), copper (Cu), chromium (Cr), molybdenum (Mo), niobium (Nb), tantalum (Ta), and aluminum (Al). a composite core comprising a carbonaceous base, and a metal or metalloid nanostructure on the carbonaceous base, wherein the metal or metalloid nanostructure is in a form of a silicon-based nanowire comprising at least one material selected from the group consisting of Si, SiO x (0<x<2), Si-Z alloy, and combinations thereof, wherein Z is an alkali metal, an alkali earth metal, an element of Group 11, 12, 13, 14, 15, and 16 of the periodic table of elements, a transition metal, a rare-earth element, or a combination thereof, and is not Si; and a coating layer formed on at least a part of the composite core and comprising a metal oxide coating layer and an amorphous carbonaceous coating layer, wherein the metal oxide coating layer comprises or consists of an oxide of at least one metal selected from the group consisting of zinc (Zn), zirconium (Zr), nickel (Ni), cobalt (Co), manganese (Mn), boron (B), magnesium (Mg), calcium (Ca), strontium (Sr), barium (Ba), titanium (Ti), vanadium (V), iron (Fe), copper (Cu), chromium (Cr), molybdenum (Mo), niobium (Nb), tantalum (Ta), and aluminum (Al).
Method for controlling movement sequences of a robot , the method comprising: - predicting values of at least one parameter related to the execution of alternative movement sequences by the robot , where each movement sequence comprises at least one movement segment associated with a handling location ; - selecting a movement sequence based on the predicted values of the at least one parameter; and - executing the selected movement sequence by the robot ; characterized in that each movement sequence comprises at least two movement segments associated with at least two handling locations and wherein the alternative movement sequences include different sets of handling locations among a plurality of handling locations that are expected to be within reach of the robot when the movement segment is ready to start and optionally among handling locations that are expected to be within reach of the robot after a waiting time. - predicting values of at least one parameter related to the execution of alternative movement sequences by the robot , where each movement sequence comprises at least one movement segment associated with a handling location ; - selecting a movement sequence based on the predicted values of the at least one parameter; and - executing the selected movement sequence by the robot ;
Joint assembly comprising a structural body comprising at least a key projecting cantilevered from an abutment surface of said structural body ; said key comprises a stem extending along a key direction (X-X); said stem comprises a first stem portion having a reduced transverse encumbrance, and a second stem portion from which fins project having a predetermined circumferential extension; said fins define a free end and locking surfaces opposite to said free end ; said joint assembly further comprises a seat body comprising an abutment counter-surface which can be placed facing said abutment surface ; said seat body delimits at least a seat , formed by opening from said abutment counter-surface , said abutment counter-surface delimiting at least an entry slot shaped so as to receive said key ; said seat body delimits a first seat portion proximal to said entry slot and having a reduced transverse extension, suitable for allowing the insertion of the key when the fins are oriented aligned with said entry slot ; said seat body delimits a second seat portion which is internal and opposite to said entry slot , said second seat portion widens so as to allow the free rotation of the key around the key direction (X-X); said seat body , when passing from said first seat portion to said second seat portion , forms locking counter-surfaces positioned undercut with respect to said abutment counter-surface ; wherein said locking counter-surfaces have at least a inclined plane portion moving away from the entry slot in such a way that the key , by rotating in a screwing sense (V), brings said abutment surface in force-contact against said abutment counter-surface , thereby creating a firm frictional fit; wherein said structural body defines, with a portion thereof or an extension thereof, a longitudinal direction (Y-Y), substantially coinciding with the axis of longitudinal development of a structural element ; wherein - said key direction (X-X) is eccentric with respect to said longitudinal direction (Y-Y); - said key direction (X-X) or a prolongation thereof and said longitudinal direction (Y-Y) cross said structural element substantially for the entire extension thereof along the longitudinal direction (Y-Y). - said key direction (X-X) is eccentric with respect to said longitudinal direction (Y-Y); - said key direction (X-X) or a prolongation thereof and said longitudinal direction (Y-Y) cross said structural element substantially for the entire extension thereof along the longitudinal direction (Y-Y).
An analyser for collecting and analysing a breath condensate, the analyser comprising a housing, the housing having a cooling means and, further, retaining a cartridge device comprising a condensation zone to condense exhaled breath from a subject, the cooling means being in cooling relationship with the condensation zone, the device including one or more further discrete regions for detection of analyte and measurement of analyte, the cartridge device further comprising a fluid path connecting the condensation zone to the or each discrete region , the housing including a mouth-piece having an entry port to enable a user to breathe into the mouth-piece , the mouth-piece comprising one or more fluid passages to direct breath entering the mouth-piece into the condensation zone , characterised in that the mouth-piece comprises an exit valve , and, interposed between the entry port and the exit valve a plurality of chambers (121 - 123) to direct fluid flow from the entry port to the exit valve , the chambers being so configured to cause a change of 90° in the direction of fluid flow.
Method for the controlled run-up of a weaving machine and a shedding machine, wherein the weaving machine and the shedding machine are connected with a controller, wherein the weaving machine is driven by means of a main drive, wherein the shedding machine is driven by means of an electric motor auxiliary drive, wherein the weaving and the shedding machine are connected by means of a common converter intermediate circuit for the energy flow transmission, wherein the shedding machine is started at a time point t0 and is run-up until a time point t1 to a predetermined overspeed that lies above its operating rotational speed, wherein the time point t1 lies before a time point t3, wherein the weaving machine is started at a time point t2, and wherein the start phase of the weaving machine lies within the time interval from the time point t2 to the time point t3, and wherein a power transmission by means of the converter intermediate circuit from the shedding machine to the weaving machine is carried out in the stated start phase, characterized in that the gradient of the rotational speed curve of the shedding machine is more negative in a later section of the start phase than in an earlier section. wherein the weaving machine and the shedding machine are connected with a controller, wherein the weaving machine is driven by means of a main drive, wherein the shedding machine is driven by means of an electric motor auxiliary drive, wherein the weaving and the shedding machine are connected by means of a common converter intermediate circuit for the energy flow transmission, wherein the shedding machine is started at a time point t0 and is run-up until a time point t1 to a predetermined overspeed that lies above its operating rotational speed, wherein the time point t1 lies before a time point t3, wherein the weaving machine is started at a time point t2, and wherein the start phase of the weaving machine lies within the time interval from the time point t2 to the time point t3, and wherein a power transmission by means of the converter intermediate circuit from the shedding machine to the weaving machine is carried out in the stated start phase, characterized in that the gradient of the rotational speed curve of the shedding machine is more negative in a later section of the start phase than in an earlier section.
A method for wireless networking comprising one or more base stations, BS, with N_bs antennas; two or more small cells, SC, in the range of a BS where a SC has N_sc antennas, uses N_sc1≤N_sc antennas for communication with a BS and uses N_sc2≤N_sc antennas for communication with one or more user equipments, UE; at the same time a BS transmitting downlink, DL, signals to K SCs using multi-user transmit beamforming, BF, in a frequency channel where K>1 and N_bs≥KN_sc1, an SC simultaneously transmitting DL signals to one or more UEs in its range using the same frequency channel; and, at the same time a BS receiving up link, UL, signals from K SCs using multi-user receive BF in a frequency channel where K>1 and N_bs≥KN_sc1, an SC simultaneously receiving UL signals from one or more UEs in its range using the same frequency channel.
An acoustic device that is adapted to be worn on the body of a user, comprising: an array of acoustic transducers comprising at least three acoustic radiating surfaces; and a controller that is adapted to provide array control signals that independently control the relative phases and amplitudes of each of the transducers, wherein: the array of acoustic transducers comprises four monopole transducers that are generally arranged along an axis , a first monopole transducer is closest to an expected location of an of the user, a second monopole transducer is proximate the first monopole transducer and farther away from the ear than the first monopole transducer, a third monopole transducer is proximate the second monopole transducer and farther away from the ear than the second monopole transducer, and a fourth monopole transducer is proximate the third monopole transducer and farther away from the ear than the third monopole transducer, characterized in that over at least most of an operating frequency range of the acoustic device, the control signals cause the second and third monopole transducers to each have an amplitude that is greater than that of the first and fourth monopole transducers. an array of acoustic transducers comprising at least three acoustic radiating surfaces; and a controller that is adapted to provide array control signals that independently control the relative phases and amplitudes of each of the transducers, wherein: the array of acoustic transducers comprises four monopole transducers that are generally arranged along an axis , a first monopole transducer is closest to an expected location of an of the user, a second monopole transducer is proximate the first monopole transducer and farther away from the ear than the first monopole transducer, a third monopole transducer is proximate the second monopole transducer and farther away from the ear than the second monopole transducer, and a fourth monopole transducer is proximate the third monopole transducer and farther away from the ear than the third monopole transducer, characterized in that over at least most of an operating frequency range of the acoustic device, the control signals cause the second and third monopole transducers to each have an amplitude that is greater than that of the first and fourth monopole transducers.
Laying device for the underground insertion of flexible strand materials, with: a laying slot formation apparatus extending in vertical direction of the laying device for the formation of a laying slot in the ground, a drawn primary introduction device following the laying slot formation apparatus in longitudinal direction (L) of the laying device for introducing several flexible strand materials into the laying slot which extends as far as a sole (S), with a hollow housing which has several guiding shafts, preferably a number of guiding shafts corresponding to the number of the strand materials to be laid, for the guidance of the strand materials , which extend in each case separate from one another in the manner of an arc between an inlet opening on the upper head end of the primary introduction device and outlet openings at the foot end of the primary introduction device , characterised in that each outlet opening is assigned at least one cutting fin of its own extending in drawing direction (L), which is arranged, offset by a predetermined offset (M) below the sole (S) of the laying slot formed by the laying slot formation apparatus , at the laying device and by means of which a laying track (T) can be formed. a laying slot formation apparatus extending in vertical direction of the laying device for the formation of a laying slot in the ground, a drawn primary introduction device following the laying slot formation apparatus in longitudinal direction (L) of the laying device for introducing several flexible strand materials into the laying slot which extends as far as a sole (S), with a hollow housing which has several guiding shafts, preferably a number of guiding shafts corresponding to the number of the strand materials to be laid, for the guidance of the strand materials , which extend in each case separate from one another in the manner of an arc between an inlet opening on the upper head end of the primary introduction device and outlet openings at the foot end of the primary introduction device , characterised in that each outlet opening is assigned at least one cutting fin of its own extending in drawing direction (L), which is arranged, offset by a predetermined offset (M) below the sole (S) of the laying slot formed by the laying slot formation apparatus , at the laying device and by means of which a laying track (T) can be formed.
A system for wearable/man-portable electromagnetic tomographic imaging, comprising: a wearable/man-portable boundary apparatus adapted to receive a biological object within, the wearable/man-portable boundary apparatus being a hollow structure whose walls include a plurality of electromagnetic windows through which the electromagnetic field enters and leaves, and the apparatus comprises a plurality of microgates that open and close the windows so as to control whether the electromagnetic field enters and/or leaves therethrough, wherein the walls of the hollow structure define the boundaries of an imaging domain and are made at least partly of a material that is non-transparent with respect to the electromagnetic field generated by the electromagnetic transmitting/receiving hardware, and wherein the plurality of electromagnetic windows are distributed in the walls so as to surround the imaging domain; a position determination system ; electromagnetic transmitting/receiving hardware that collectively generates an electromagnetic field that passes into the boundary apparatus and receives the electromagnetic field after being scattered/interferenced by the biological object within; and wherein the electromagnetic transmitting/receiving hardware is physically separate from the boundary apparatus , a hub computer system for performing electromagnetic tomographic imaging based upon the generated and received electromagnetic field and upon position information from the position determination system. a wearable/man-portable boundary apparatus adapted to receive a biological object within, the wearable/man-portable boundary apparatus being a hollow structure whose walls include a plurality of electromagnetic windows through which the electromagnetic field enters and leaves, and the apparatus comprises a plurality of microgates that open and close the windows so as to control whether the electromagnetic field enters and/or leaves therethrough, wherein the walls of the hollow structure define the boundaries of an imaging domain and are made at least partly of a material that is non-transparent with respect to the electromagnetic field generated by the electromagnetic transmitting/receiving hardware, and wherein the plurality of electromagnetic windows are distributed in the walls so as to surround the imaging domain; a position determination system ; electromagnetic transmitting/receiving hardware that collectively generates an electromagnetic field that passes into the boundary apparatus and receives the electromagnetic field after being scattered/interferenced by the biological object within; and wherein the electromagnetic transmitting/receiving hardware is physically separate from the boundary apparatus , a hub computer system for performing electromagnetic tomographic imaging based upon the generated and received electromagnetic field and upon position information from the position determination system.
An electrosurgical instrument , comprising: a first jaw member and a second opposing jaw member disposed at a distal end of the electrosurgical instrument, wherein each jaw member includes a first lateral side, a second lateral side, an outer housing and an inner tissue engaging surface, at least one jaw member being movable relative to the other jaw member from a first position wherein the jaw members are disposed in spaced relation relative to one another to a second position wherein the jaw members cooperate for grasping tissue therebetween; a knife channel extending through the center of the inner tissue engaging surface of the first jaw member ; and an electrode disposed on the inner tissue engaging surface of the first jaw member , the electrode including a first contact area and a second contact area , the first contact area disposed between the knife channel and the first lateral side of the first jaw member , and the second contact area disposed between the knife channel and the second lateral side of the first jaw member, a width of the first contact area and a width of the second contact area remaining substantially uniform along a length of the knife channe 1 , characterized in that the width of the first contact area of the electrode is greater than the width of the second contact area of the electrode. a first jaw member and a second opposing jaw member disposed at a distal end of the electrosurgical instrument, wherein each jaw member includes a first lateral side, a second lateral side, an outer housing and an inner tissue engaging surface, at least one jaw member being movable relative to the other jaw member from a first position wherein the jaw members are disposed in spaced relation relative to one another to a second position wherein the jaw members cooperate for grasping tissue therebetween; a knife channel extending through the center of the inner tissue engaging surface of the first jaw member ; and an electrode disposed on the inner tissue engaging surface of the first jaw member , the electrode including a first contact area and a second contact area , the first contact area disposed between the knife channel and the first lateral side of the first jaw member , and the second contact area disposed between the knife channel and the second lateral side of the first jaw member, a width of the first contact area and a width of the second contact area remaining substantially uniform along a length of the knife channe 1 , characterized in that the width of the first contact area of the electrode is greater than the width of the second contact area of the electrode.