mhurhangee/ep-ind-claims huggingface dataset:
A built-in electrical device with uniform brightness, comprising a plate coupled to a functional frame, said plate having a compartment or opening, inside which electrical devices associated with respective control buttons are housed, wherein said device includes an optical unit coupled to said functional frame and formed by a light guide which is permanently coupled to an underlying surface of said plate, said light guide being configured to collect the light coming from a plurality of LEDs placed on said functional frame which send said light to respective optical elements of extension which are optically coupled to said light guide, characterized in that said light guide and said underlying surface of the plate are facing each other and spaced from each other and are in contact only in correspondence of point supports placed in predetermined positions.
A locking device with a latch key and a closing and opening mechanism that comprises at least one bolt element, wherein the at least one bolt element can be moved from an open position into a closed position with the aid of a bolt pressure spring, and wherein the bolt pressure spring has a first pretension in order to support the closing movement of the at least one bolt element, characterized in that the bolt pressure spring is in the open position free of pretension in one state and has the first pretension in another state after a rotation of the latch key.
A large antenna count system, comprising: a master device; a plurality of slave radios (400B-N) communicatively coupled to the master device and to respective antennas in the large antenna count system, wherein each slave includes a local clock; a clock and trigger distribution system, coupled to the master device and the plurality of slave radios, wherein the clock and trigger distribution system comprises a hierarchy of clock and trigger distribution modules; wherein the plurality of slave radios are configured to establish and maintain a fixed relationship between a reference clock and their respective local clocks, wherein the reference clock is distributed via the clock and trigger distribution system and wherein the reference clock has a lower frequency than the local clocks; wherein the master device and the plurality of slave radios are configured to generate and align respective common periodic time reference signals (830, 840) that have a lower frequency than the respective local clocks; wherein the master device is configured to transmit, based on an edge of its common periodic time reference signal, a trigger signal via the clock and trigger distribution system to the plurality of slave radios; and wherein the plurality of slave radios are configured to perform an action based on the trigger at a subsequent edge of their common periodic time reference signals. a master device; a plurality of slave radios (400B-N) communicatively coupled to the master device and to respective antennas in the large antenna count system, wherein each slave includes a local clock; a clock and trigger distribution system, coupled to the master device and the plurality of slave radios, wherein the clock and trigger distribution system comprises a hierarchy of clock and trigger distribution modules; wherein the plurality of slave radios are configured to establish and maintain a fixed relationship between a reference clock and their respective local clocks, wherein the reference clock is distributed via the clock and trigger distribution system and wherein the reference clock has a lower frequency than the local clocks; wherein the master device and the plurality of slave radios are configured to generate and align respective common periodic time reference signals (830, 840) that have a lower frequency than the respective local clocks; wherein the master device is configured to transmit, based on an edge of its common periodic time reference signal, a trigger signal via the clock and trigger distribution system to the plurality of slave radios; and wherein the plurality of slave radios are configured to perform an action based on the trigger at a subsequent edge of their common periodic time reference signals.
Method for determining the power of an internal combustion engine, (test specimen), with a measuring device for registering the time profile of the rotational speed of an output shaft of the internal combustion engine (test specimen), the time profile of the rotational speed being exclusively measured in order to determine the power at a specific time, and the internal combustion engine (test specimen) being tested within a time period during which there is no necessity for forced cooling, wherein a forced-cooling device is not connected and wherein the power of the test specimen at the particular time is calculated according to the formula P t = I kgm 2 * 100 * α t + M fric ω t, where P (t) = power P at the specific time (t), where I = mass moment of inertia of the entire rotary mass which is moved or accelerated by the internal combustion engine (test specimen), where α (t) = angular acceleration at the specific time (t), where M fric = moment of friction of the entire rotary mass moved by the internal combustion engine (test specimen), which rotary mass counteracts the rotary movement or rotary acceleration, and where ω (t) = the angular speed at the specific time (t) and wherein the mass moment of inertia is assumed to be constant, and in that the moment of friction is inserted into the formula in accordance with a moment of friction curve which is specifically determined in advance for the type of internal combustion engine (test specimen) and is dependent on the rotational speed. P (t) = power P at the specific time (t), where I = mass moment of inertia of the entire rotary mass which is moved or accelerated by the internal combustion engine (test specimen), where α (t) = angular acceleration at the specific time (t), where M fric = moment of friction of the entire rotary mass moved by the internal combustion engine (test specimen), which rotary mass counteracts the rotary movement or rotary acceleration, and where ω (t) = the angular speed at the specific time (t) and wherein the mass moment of inertia is assumed to be constant, and in that the moment of friction is inserted into the formula in accordance with a moment of friction curve which is specifically determined in advance for the type of internal combustion engine (test specimen) and is dependent on the rotational speed.
An electronically actuated locking differential comprising: a gear case having opposite first and second ends; a differential gear set disposed in the gear case the differential gear set including a first side gear and a second side gear; a lock plate disposed at the gear case first end and configured to selectively engage the differential gear set; an electronic actuator disposed at the gear case second end and coupled to the lock plate via at least one rod; and a biasing mechanism disposed between the first side gear and the lock plate, the biasing mechanism comprising a wave spring configured to bias the lock plate out of engagement with the first side gear; wherein the electronic actuator is operable between an unlocked first mode where the lock plate does not lockingly engage the differential gear set, and a locked second mode where the electronic actuator pulls the at least one rod to thereby pull the lock plate into locking engagement with the differential gear set to thereby lock a pair of axle shafts. a gear case having opposite first and second ends; a differential gear set disposed in the gear case the differential gear set including a first side gear and a second side gear; a lock plate disposed at the gear case first end and configured to selectively engage the differential gear set; an electronic actuator disposed at the gear case second end and coupled to the lock plate via at least one rod; and a biasing mechanism disposed between the first side gear and the lock plate, the biasing mechanism comprising a wave spring configured to bias the lock plate out of engagement with the first side gear; wherein the electronic actuator is operable between an unlocked first mode where the lock plate does not lockingly engage the differential gear set, and a locked second mode where the electronic actuator pulls the at least one rod to thereby pull the lock plate into locking engagement with the differential gear set to thereby lock a pair of axle shafts.
Insulating paper for oil-immersed motors used in an oil-immersed motor in a state where folding is applied to the paper, the motor operating in a state where it is immersed in a cooling oil, the paper comprising a polyester film and heat resistant sheets made from aromatic polyamide laminated to both front and back surfaces of the polyester film, the polyester film and the heat resistant sheets being bonded with an acrylic adhesive, wherein the acrylic adhesive contains polyisocyanate and a polybutyl acrylate having a weight average molecular weight of 400,000 or more in a proportion of the polyisocyanate of more than 3 parts by weight and 20 parts by weight or less based on 100 parts by weight of the polybutyl acrylate.
A head for a surface cleaning device, the head including: an inlet for receiving dirt-laden fluid from a surface; an inlet extension member; at least one agitator; and at least one wheel for supporting the inlet extension member on the surface, characterised in that the or each wheel is located between the inlet extension member and the at least one agitator. an inlet for receiving dirt-laden fluid from a surface; an inlet extension member; at least one agitator; and at least one wheel for supporting the inlet extension member on the surface,
Element for holding a power supply device comprising an element for storing electrical energy and for supplying power to an actuator for controlling a movable screen, the actuator causing a drive shaft to rotate, the holding element comprising a body provided with a hole for receiving at least part of the power supply device, characterised in that the holding element comprises a longitudinal slit on at least part of the body, the longitudinal slit enabling easy deformation of the body for the insertion of the power supply device and as said power supply device is inserted in the hole.
Method for coordinating a vehicle group composed of a number of vehicles (2i, i=1,2,.., N), the vehicles of the vehicle group moving on a roadway at predetermined target distances (dSollj; j=1, 2,...N-1) from one another and the vehicles communicating with one another wirelessly via V2X communication, the predetermined target distance (dSollj) from the corresponding vehicle being adjusted via a distance control system, the target distances (dSollj) being defined such that the vehicle group is permanently divided (St1a) into a defined number of at least two vehicle sub-groups (1.k, k=1, 2,...,M), so that a guide vehicle sub-group (1.1) is followed by at least one following vehicle sub-group (1.k, k>1), wherein for this purpose - a separate guide vehicle (X.k, k>1) is assigned (St1b) to at least each following vehicle sub-group (1.k, k>1), the guide vehicle (X.k, k>1) of the corresponding following vehicle sub-group (1.k, k>1) leading the corresponding following vehicle sub-group (1.k, k>1) as a first vehicle; and - a target distance (dSollj) is specified to the guide vehicle (X.k, k>1) of the corresponding following vehicle sub-group (1.k, k>1), which target distance corresponds (St1d) at least to a predefined entry distance (dE) which must always be maintained between the vehicle sub-groups, the entry distance (dE) being defined such that, after the entry distance (dE) has been adjusted as the target distance (dSollj) from a vehicle, driving directly ahead, of the same vehicle group, a gap forms between the corresponding vehicle sub-groups (1.k), so that a vehicle (40, 41) which is ready to cut in and has a vehicle length which does not exceed a predefined maximum length (LMax) can switch into the gap on the roadway of the vehicle group between the at least two vehicle sub-groups (1.k), the target distance (dSollj) that is specified to the guide vehicle (X.k, k>1) of the corresponding following vehicle sub-group (1.k, k>1) being defined under the condition whereby vehicles of different vehicle sub-groups (1.k) can also communicate wirelessly indirectly or directly with one another via the V2X communication after this target distance (dSollj) has been adjusted, in order to coordinate the entire vehicle group. - a separate guide vehicle (X.k, k>1) is assigned (St1b) to at least each following vehicle sub-group (1.k, k>1), the guide vehicle (X.k, k>1) of the corresponding following vehicle sub-group (1.k, k>1) leading the corresponding following vehicle sub-group (1.k, k>1) as a first vehicle; and - a target distance (dSollj) is specified to the guide vehicle (X.k, k>1) of the corresponding following vehicle sub-group (1.k, k>1), which target distance corresponds (St1d) at least to a predefined entry distance (dE) which must always be maintained between the vehicle sub-groups,
A transverse cutting device for a winding machine, which extends transversely to the transport direction of a continuous web of material and, for the cutting procedure of the web of material, is formed to pivot from a resting position at least partially into the plane of the continuous web of material, comprising at least one knife, which is disposed displaceable along a guide orthogonally to the transport direction of the continuous web of material, with a press-down device, which continuously cooperates with the knife during the cutting procedure, wherein the press-down device is formed to move from an operating position into an evasion position, and wherein the knife is formed as a rotating knife, characterized in that the press-down device is disposed pivotably about the point of rotation of the knife.
Method for handling a yarn end of a cross-wound bobbin at a winding station of a textile machine producing cross-wound bobbins, whereas - the cross-wound bobbin can be held and driven in a bobbin holder, - a thread is laid in a cross-wise manner on the cross-wound bobbin by means of a traversing device and - a suction nozzle is subjected to negative pressure and the thread end is sucked into the suction nozzle through a suction mouth, - the suction mouth is moved relative to the suction nozzle, - such that the distance between the suction mouth and the cross-wound bobbin is changed, in order to be able to find the thread end and to stretch it between the suction mouth and the cross-wound bobbin and that - the stretched thread is moved to an aggregate of the textile machine for further processing. characterized in that, - the suction mouth is displaced linearly and - that the suction nozzle is arranged at the winding station in a manner that is essentially stationary and is directly in front of the cross-wound bobbin. - the cross-wound bobbin can be held and driven in a bobbin holder, - a thread is laid in a cross-wise manner on the cross-wound bobbin by means of a traversing device and - a suction nozzle is subjected to negative pressure and the thread end is sucked into the suction nozzle through a suction mouth, - the suction mouth is moved relative to the suction nozzle, - such that the distance between the suction mouth and the cross-wound bobbin is changed, in order to be able to find the thread end and to stretch it between the suction mouth and the cross-wound bobbin and that - the stretched thread is moved to an aggregate of the textile machine for further processing. characterized in that, - the suction mouth is displaced linearly and - that the suction nozzle is arranged at the winding station in a manner that is essentially stationary and is directly in front of the cross-wound bobbin.
A food product comprising individually distinguishable, intact beads, said beads comprising an ingredients mixture comprising: a) sugar or combination of two or more sugars in an amount between 20% and 75% (dry weight/mixture weight); b) starch(es) and/or modified starch(es) or combinations thereof in an amount between 0.5% and 10.0% (dry weight/mixture weight); c) food grade hydrocolloid or combination of two or more food grade hydrocolloids in an amount between 0.5% and 3% (dry weight /mixture weight) or food grade di- and/or trivalent cations in an amount between 0.5% and 3% (dry weight /mixture weight), wherein the hydrocolloid is capable of gelling in the presence of one or more of a divalent or trivalent cations, said cations being present under any suitable (inorganic or organic) form chosen from any of CaCl 2, CaCl 2.2H 2 0, calcium iodate, calcium lactate, CaS0 4, calcium propionate and iron oxalate; d) optionally additional ingredients such as eggs or egg derivates, thickeners chosen from cellulose or xanthan gum, fruits, chocolate, cocoa powder, dairy ingredients, fats, emulsifiers, salts, acids, preservatives, coloring agents and/or flavoring agents in amount(s) between 0 and 75% (dry weight/mixture weight); and; e) water up to 100% wherein said ingredient mixture has a viscosity of at least 10 Pa·s (10000 cP) and at the most 300 Pa·s (300000 cP) and wherein said beads have a water activity between 0.50 and 0.99 and a Brix index between 20 and 80. a) sugar or combination of two or more sugars in an amount between 20% and 75% (dry weight/mixture weight); b) starch(es) and/or modified starch(es) or combinations thereof in an amount between 0.5% and 10.0% (dry weight/mixture weight); c) food grade hydrocolloid or combination of two or more food grade hydrocolloids in an amount between 0.5% and 3% (dry weight /mixture weight) or food grade di- and/or trivalent cations in an amount between 0.5% and 3% (dry weight /mixture weight), wherein the hydrocolloid is capable of gelling in the presence of one or more of a divalent or trivalent cations, said cations being present under any suitable (inorganic or organic) form chosen from any of CaCl 2, CaCl 2.2H 2 0, calcium iodate, calcium lactate, CaS0 4, calcium propionate and iron oxalate; d) optionally additional ingredients such as eggs or egg derivates, thickeners chosen from cellulose or xanthan gum, fruits, chocolate, cocoa powder, dairy ingredients, fats, emulsifiers, salts, acids, preservatives, coloring agents and/or flavoring agents in amount(s) between 0 and 75% (dry weight/mixture weight); and; e) water up to 100%
An article of footwear comprising: an upper having a medial side, a lateral side opposite the medial side, a toe box, a heel portion spaced apart from the toe box, and a forefoot portion disposed between the toe box and the heel portion; wherein the forefoot portion has a first region having a first stiffness; a transition region including an elastomeric transition layer disposed on and partially covering the first region; wherein the transition region has a second stiffness that is greater than the first stiffness; a toe cap disposed on and partially covering the elastomeric transition layer at the toe box; and an ankle collar defining a foot-receiving cavity; wherein the ankle collar and the heel portion define a seam channel therebetween such that: an entirety of the ankle collar is spaced apart from the heel portion by the seam channel on the lateral side; a first portion of the ankle collar is spaced apart from the heel portion by the seam channel on the medial side; and a second portion of the ankle collar is connected to the heel portion on the medial side. an upper having a medial side, a lateral side opposite the medial side, a toe box, a heel portion spaced apart from the toe box, and a forefoot portion disposed between the toe box and the heel portion; wherein the forefoot portion has a first region having a first stiffness; a transition region including an elastomeric transition layer disposed on and partially covering the first region; wherein the transition region has a second stiffness that is greater than the first stiffness; a toe cap disposed on and partially covering the elastomeric transition layer at the toe box; and an ankle collar defining a foot-receiving cavity; wherein the ankle collar and the heel portion define a seam channel therebetween such that: an entirety of the ankle collar is spaced apart from the heel portion by the seam channel on the lateral side; a first portion of the ankle collar is spaced apart from the heel portion by the seam channel on the medial side; and a second portion of the ankle collar is connected to the heel portion on the medial side. an entirety of the ankle collar is spaced apart from the heel portion by the seam channel on the lateral side; a first portion of the ankle collar is spaced apart from the heel portion by the seam channel on the medial side; and a second portion of the ankle collar is connected to the heel portion on the medial side.
A method of visualizing cell cycle progression, said method comprising the steps of (a) stably introducing a nucleic acid expression construct encoding a fusion protein comprising a reporter protein and a protein with a wild-type destruction signal into a cell, wherein the protein with the wild-type destruction signal is the protein anillin derived from human, animal or plant, wherein the sequence encoding the fusion protein is operably linked to a non-endogenous promoter, and wherein said fusion protein localizes during cell cycle progression to subcellular structures selected from the group consisting of the cell cortex, the contractile ring, and the midbody; (b) expressing the fusion protein encoded by the nucleic acid expression construct within the cell; (c) monitoring the expression of the fusion protein by taking advantage of the reporter protein, characterized in that the expression of the fusion protein is monitored by means of fluorescence, luminescence or enzymatic analysis for a time period of one or more cell cycle(s). (a) stably introducing a nucleic acid expression construct encoding a fusion protein comprising a reporter protein and a protein with a wild-type destruction signal into a cell, wherein the protein with the wild-type destruction signal is the protein anillin derived from human, animal or plant, wherein the sequence encoding the fusion protein is operably linked to a non-endogenous promoter, and wherein said fusion protein localizes during cell cycle progression to subcellular structures selected from the group consisting of the cell cortex, the contractile ring, and the midbody; (b) expressing the fusion protein encoded by the nucleic acid expression construct within the cell; (c) monitoring the expression of the fusion protein by taking advantage of the reporter protein, characterized in that the expression of the fusion protein is monitored by means of fluorescence, luminescence or enzymatic analysis for a time period of one or more cell cycle(s).
A ship for transporting passengers, comprising at least one deck comprising at least one public open-air zone, having a floor accessible to people, the upper surface of which comprises plates having at least one perforation for sending water on their upper surface, characterized in that the floor is located in a pool enclosed by at least one first side wall, the upper edge of which has a third predetermined non-zero height above the upper surface of the plates, each plate has a lower surface connected to a duct for water supply connected to at least one water-supply pump for sending water in the perforation on the upper surface of the plate, the pool has at least one first hole connected to at least one first pipe, on which is provided at least one valve capable of assuming either a first open position for discharge of water via the first pipe to form a film of water not exceeding a first predetermined height, less than the third predetermined height, on the plates, or a second closed position preventing discharge of water via the first pipe to have on the plates a volume of water having a second predetermined height which is less than the third predetermined height and greater than the first height.