mhurhangee/ep-ind-claims huggingface dataset:
Food production line with a forming apparatus that comprises a rotating drum, which is utilized to form a product from a food mass and that it comprises an accumulation belt under the drum on which the products are stacked or shingled characterized in that a packaging machine is provided, which packages the product in a packaging and wherein the accumulation belt is placed upstream from the packaging machine and/or is part of the packaging machine and wherein the accumulation belt is provided as a shuttle belt.
Locking mechanism for a leaf of a door or for a sash of a window, having a forend and a housing, wherein at least one pivotably mounted latch element is arranged in the housing, and having an electromagnet for actuating a blocking lever for releasing or for blocking the at least one latch element, characterized in that at least one latching lever, which is mounted on one side in a rotary bearing, and one locking lever, which is mounted on one side in a rotary bearing, are provided, wherein the axes of the rotary bearing of the latching lever and of the rotary bearing of the locking lever are arranged parallel to one another, and wherein the introduction of force to the latching lever and to the locking lever occurs in each case close to the assigned rotary bearing (16, 17), and the transfer of force in each case occurs, directed away from the rotary bearing (16, 17), on the end side of the latching lever or of the locking lever, in that a slide is provided which has bevels which interact with a contour arranged close to the rotary bearing of the latching lever in order to introduce force from the slide to the latching lever, wherein each latch element bears on the slide, and in that a rotary body for transmitting the force acting on the at least one latching lever to the locking lever is provided, with the result that the action of force is transmitted to mutually parallel planes which are defined by the pivoting plane of the latching lever and by the pivoting plane of the locking lever.
Piston metering apparatus (10, 10') for fluid media, in particular for supplying an application device in a plant for coating objects, which apparatus comprises: a) a cylinder with at least one opening for fluid medium; b) a piston arrangement (72; 72') which is displaceable in the cylinder by means of a drive device and which is carried by a piston rod and delimits a working space of the cylinder communicating with the opening of the cylinder, wherein c) a receiving space of the piston arrangement (72, 72') can be supplied with flushing fluid and is fluidically connected to the working space of the cylinder; d) the piston arrangement (72; 72') comprises a first piston element facing the working space of the cylinder and a second piston element (90; 90') facing away from the working space of the cylinder, which are displaceable relative to one another in the cylinder, so that the receiving space can be formed between the piston elements (74, 90; 74, 90'), characterised in that e) the first piston element is coupled to the piston rod and the second piston element is mounted displaceably with respect to the piston rod, the second piston element being pressed by means of a compression spring away from the piston rod in the axial direction towards the first piston element; or f) the second piston element is coupled to the piston rod and the first piston element is mounted displaceably with respect to the piston rod, the first piston element being pressed by means of a compression spring away from the piston rod and the second piston element in the axial direction. a) a cylinder with at least one opening for fluid medium; b) a piston arrangement (72; 72') which is displaceable in the cylinder by means of a drive device and which is carried by a piston rod and delimits a working space of the cylinder communicating with the opening of the cylinder, wherein c) a receiving space of the piston arrangement (72, 72') can be supplied with flushing fluid and is fluidically connected to the working space of the cylinder; d) the piston arrangement (72; 72') comprises a first piston element facing the working space of the cylinder and a second piston element (90; 90') facing away from the working space of the cylinder, which are displaceable relative to one another in the cylinder, so that the receiving space can be formed between the piston elements (74, 90; 74, 90'), characterised in that e) the first piston element is coupled to the piston rod and the second piston element is mounted displaceably with respect to the piston rod, the second piston element being pressed by means of a compression spring away from the piston rod in the axial direction towards the first piston element; or f) the second piston element is coupled to the piston rod and the first piston element is mounted displaceably with respect to the piston rod, the first piston element being pressed by means of a compression spring away from the piston rod and the second piston element in the axial direction.
A centrifugal pendulum having an axis of rotation, at least comprising a minimum of one flange and a plurality of pendulum masses, wherein the pendulum masses are movably arranged on the minimum of one flange at least in a radial direction in relation to the axis of rotation and in relation to the minimum of one flange; wherein the minimum of one flange comprises a first flange half and a second flange half which are arranged adjacent to one another in an axial direction parallel to the axis of rotation, wherein the pendulum masses are arranged in the axial direction between the flange halves (6, 7); wherein a movement of the pendulum masses in relation to the minimum of one flange is guided at least via a plurality of rollers (9, 10), characterised in that at least one of the pendulum masses is guided via a first roller only on the first flange half and via a second roller only on the second flange half.
Wind turbine driven by a rotor with at least two blades which includes a rotor shaft, a multiplier unit with, at least, a planetary type stage and a generator into a nacelle, the rotor shaft being fitted to two separated bearing supports, one of them integrated in the multiplier unit, wherein: a) the rotor shaft is joined on one side to the hub and on the other side to the planet carrier of the multiplier unit; b) the wind turbine further also includes a first tubular-form casing, fixed to the nacelle on one side, by means of fixing elements, and on the other side, to a second casing by means of fixing elements, the first tubular-form casing holds the rotor shaft in it and includes a bearing of the rotor shaft near the hub; c) the wind turbine further includes a second casing, in which the bearing of the planet carrier is placed, which is fixed on one of its sides to the first planetary stage gear ring of the multiplier unit, and on the other side to the first casing and also to the nacelle, characterized in that the wind turbine further comprises a communication pipe between the multiplier unit and the first casing in order to share the lubricating oil between the multiplier unit and the bearings. a) the rotor shaft is joined on one side to the hub and on the other side to the planet carrier of the multiplier unit; b) the wind turbine further also includes a first tubular-form casing, fixed to the nacelle on one side, by means of fixing elements, and on the other side, to a second casing by means of fixing elements, the first tubular-form casing holds the rotor shaft in it and includes a bearing of the rotor shaft near the hub; c) the wind turbine further includes a second casing, in which the bearing of the planet carrier is placed, which is fixed on one of its sides to the first planetary stage gear ring of the multiplier unit, and on the other side to the first casing and also to the nacelle, characterized in that the wind turbine further comprises a communication pipe between the multiplier unit and the first casing in order to share the lubricating oil between the multiplier unit and the bearings.
An access point device for wireless communication comprising: a transmitter configured to allocate a dedicated low-band channel, DLBC in a modified Orthogonal Frequency Division Multiple Access, OFDMA, wireless frame structure, OFDMA-WFS, the DLBC has a lower bandwidth than a minimal transmission bandwidth of mandatory full bandwidth transmission fields required in an 802.11ax network; and a modulator configured to produce in the DLBC a low-band signal field (99a, 99b), LBSF, detectable in the lower bandwidth, for acquiring data symbols transmitted in the dedicated low-band channel, wherein the LBSF (99a, 99b) is after at least one training field in the DLBC, and the at least one training field is produced in parallel to a High Efficiency, HE, OFDMA data symbol in the modified OFDMA-WFS and after a HE OFDMA training field, wherein the modulator is further configured to produce a starter signal for starting a receiver at a receiving device and allocate the starter signal before the at least one produced training field, and wherein the transmitter is further configured to transmit the modified OFDMA-WFS. a transmitter configured to allocate a dedicated low-band channel, DLBC in a modified Orthogonal Frequency Division Multiple Access, OFDMA, wireless frame structure, OFDMA-WFS, the DLBC has a lower bandwidth than a minimal transmission bandwidth of mandatory full bandwidth transmission fields required in an 802.11ax network; and a modulator configured to produce in the DLBC a low-band signal field (99a, 99b), LBSF, detectable in the lower bandwidth, for acquiring data symbols transmitted in the dedicated low-band channel, wherein the LBSF (99a, 99b) is after at least one training field in the DLBC, and the at least one training field is produced in parallel to a High Efficiency, HE, OFDMA data symbol in the modified OFDMA-WFS and after a HE OFDMA training field, wherein the modulator is further configured to produce a starter signal for starting a receiver at a receiving device and allocate the starter signal before the at least one produced training field, and wherein the transmitter is further configured to transmit the modified OFDMA-WFS.
A system comprising: a flexible instrument; control logic; a first mechanism configured for computer-assisted operation to control an orientation of a distal tip of the flexible instrument in response to a first signal from the control logic; a second mechanism configured to move the flexible instrument along an insertion direction, wherein the control logic provides: a first mode in which the second mechanism moves the flexible instrument along the insertion direction in response to a second signal from the control logic; and a second mode in which the control logic allows manual control of movement of the flexible instrument along the insertion direction while the computer-assisted operation is used to control the orientation of the distal tip; a first input device operable by a user to generate the first signal; and a second input device operable by a user to switch the system between the first mode and the second mode; wherein the control logic uses user input provided through the second input device to control a stiffness of the flexible instrument. a flexible instrument; control logic; a first mechanism configured for computer-assisted operation to control an orientation of a distal tip of the flexible instrument in response to a first signal from the control logic; a second mechanism configured to move the flexible instrument along an insertion direction, wherein the control logic provides: a first mode in which the second mechanism moves the flexible instrument along the insertion direction in response to a second signal from the control logic; and a second mode in which the control logic allows manual control of movement of the flexible instrument along the insertion direction while the computer-assisted operation is used to control the orientation of the distal tip; a first mode in which the second mechanism moves the flexible instrument along the insertion direction in response to a second signal from the control logic; and a second mode in which the control logic allows manual control of movement of the flexible instrument along the insertion direction while the computer-assisted operation is used to control the orientation of the distal tip; a first input device operable by a user to generate the first signal; and a second input device operable by a user to switch the system between the first mode and the second mode; wherein the control logic uses user input provided through the second input device to control a stiffness of the flexible instrument.
A hearing aid device (2; 2') for improving, augmenting and/or protecting the hearing capability of a user (4; 4') when receiving acoustic signals from the surroundings of the user, wherein the hearing device is adapted for being arranged behind the ear with a tube leading air-borne acoustic signals into the ear canal or with a loudspeaker arranged close to or in the ear canal, as a unit entirely or partly arranged in the pinna and/or in the ear canal, as a unit attached to a fixture implanted into the skull bone, or as an entirely or partly implanted unit, the hearing aid device (2; 2') comprising an input unit for generating corresponding audio signals, a signal processing unit for modifying the audio signals and an output unit for providing modified audio signals as audible signals to at least one of the user's ears, the hearing aid device comprising a sensor member for detecting the movement and/or acceleration and/or orientation and/or position of the hearing aid device, the input unit of the hearing aid device (2; 2') comprises at least two hearing aid microphones (38; 38') CHARACTERIZED IN THAT the hearing aid device comprises a control unit for determining a deviation from an intended position of the hearing aid microphones (38; 38') and wherein the hearing aid device is configured to compensate for a possible dislocation of the hearing aid microphones (38; 38') by controlling hearing aid device settings on the basis of measurements made by the sensor member.
A catalyst system comprising: I. a solid reaction product obtained by reaction of: (a) a hydrocarbon solution comprising an organic oxygen containing magnesium compound or a halogen containing magnesium compound and an organic oxygen containing titanium compound and (b) a mixture comprising a metal compound having the formula MeR n X 3-n wherein X is a halogenide, Me is a metal of Group III of Mendeleev's Periodic System of Chemical Elements, R is a hydrocarbon radical containing 1 - 10 carbon atoms and 0 ≤ n ≤ 3 and a silicon compound of formula R m SiCl 4-m wherein 0 ≤ m ≤ 2 and R is a hydrocarbon radical containing 1 - 10 carbon atoms wherein the molar ratio of metal from I (b): titanium from I (a) is lower than 1:1 II. an organo aluminium compound having the formula AIR 3 in which R is a hydrocarbon radical containing 1 - 10 carbon atoms and III. an external electron donor selected from the group of 1,2-dialkoxyalkanes, 1,2-dialkoxyalkenes or an external polymeric electron donor. I. a solid reaction product obtained by reaction of: (a) a hydrocarbon solution comprising an organic oxygen containing magnesium compound or a halogen containing magnesium compound and an organic oxygen containing titanium compound and (b) a mixture comprising a metal compound having the formula MeR n X 3-n wherein X is a halogenide, Me is a metal of Group III of Mendeleev's Periodic System of Chemical Elements, R is a hydrocarbon radical containing 1 - 10 carbon atoms and 0 ≤ n ≤ 3 and a silicon compound of formula R m SiCl 4-m wherein 0 ≤ m ≤ 2 and R is a hydrocarbon radical containing 1 - 10 carbon atoms wherein the molar ratio of metal from I (b): titanium from I (a) is lower than 1:1 (a) a hydrocarbon solution comprising an organic oxygen containing magnesium compound or a halogen containing magnesium compound and an organic oxygen containing titanium compound and an organic oxygen containing magnesium compound or a halogen containing magnesium compound and an organic oxygen containing titanium compound and (b) a mixture comprising a metal compound having the formula MeR n X 3-n wherein X is a halogenide, Me is a metal of Group III of Mendeleev's Periodic System of Chemical Elements, R is a hydrocarbon radical containing 1 - 10 carbon atoms and 0 ≤ n ≤ 3 and a silicon compound of formula R m SiCl 4-m wherein 0 ≤ m ≤ 2 and R is a hydrocarbon radical containing 1 - 10 carbon atoms wherein the molar ratio of metal from I (b): titanium from I (a) is lower than 1:1 II. an organo aluminium compound having the formula AIR 3 in which R is a hydrocarbon radical containing 1 - 10 carbon atoms and III. an external electron donor selected from the group of 1,2-dialkoxyalkanes, 1,2-dialkoxyalkenes or an external polymeric electron donor.
A system for generating an energized fracturing fluid mixture for hydraulically fracturing a downhole formation, the system comprising: (a) a fracturing base fluid source; (b) a base fluid pump fluidly coupled to the fracturing base fluid source, and configurable to pressurize a liquid base fluid to at least a fracturing pressure of a formation; (c) a liquefied natural gas, LNG, source; (d) an LNG pump assembly fluidly coupled to the LNG source and comprising a pump component configurable to pressurize LNG to at least the fracturing pressure, and a heater component configurable to vaporize pressurized LNG to a gaseous phase; and (e) a fracturing fluid mixer having a first inlet fluidly coupled to the base fluid pump, a second inlet fluidly coupled to the LNG pump assembly and an outlet for coupling to a wellhead, and for mixing the liquid base fluid and gaseous natural gas to form a fracturing fluid mixture for injection into the wellhead. (a) a fracturing base fluid source; (b) a base fluid pump fluidly coupled to the fracturing base fluid source, and configurable to pressurize a liquid base fluid to at least a fracturing pressure of a formation; (c) a liquefied natural gas, LNG, source; (d) an LNG pump assembly fluidly coupled to the LNG source and comprising a pump component configurable to pressurize LNG to at least the fracturing pressure, and a heater component configurable to vaporize pressurized LNG to a gaseous phase; and (e) a fracturing fluid mixer having a first inlet fluidly coupled to the base fluid pump, a second inlet fluidly coupled to the LNG pump assembly and an outlet for coupling to a wellhead, and for mixing the liquid base fluid and gaseous natural gas to form a fracturing fluid mixture for injection into the wellhead.
An earthing nut comprising: a screw hole that is intended to be engaged with a bolt in which screw threads are formed at a pitch P, and wherein in a portion of the screw hole in an axial direction, a cut-out is provided extending in the axial direction, and an end surface of the screw thread facing the cut-out is formed as a cutting edge, characterized in that in all screw threads provided in the screw hole, a pitch Pn of the screw thread is greater than the pitch P of the screw thread of the bolt, and a thread angle θ of the screw thread is formed to be greater than 60 degrees. a screw hole that is intended to be engaged with a bolt in which screw threads are formed at a pitch P, and wherein in a portion of the screw hole in an axial direction, a cut-out is provided extending in the axial direction, and an end surface of the screw thread facing the cut-out is formed as a cutting edge,
A method (2900; 3000) comprising: identifying (2910; 3010) an object in a virtual environment; identifying an object skeleton to associate with the object, the object skeleton being identified based on one or more properties of the object; mapping (2920; 3020) the object skeleton to the object, wherein the object skeleton is a pre-defined template having one or more joint angles, wherein a joint angle represents a degree of an angle between one or more joints; receiving (2930; 3040) a user skeleton, wherein the user skeleton is an image of a skeleton of a user having one or more joint angles; and mapping (2940; 3050) the user skeleton to the object skeleton such that the object is controlled by the user, wherein the mapping of the user skeleton to the object skeleton comprises: mapping a joint position of the user skeleton to a joint scale of the object skeleton, the object being stretched in response to movement of the joint position of the user skeleton, and mapping at least one of the one or more joint angles of the user skeleton to control a multi-joint animation, the joint position of the user skeleton is adapted to control multiple object joints in a non-linear fashion. identifying (2910; 3010) an object in a virtual environment; identifying an object skeleton to associate with the object, the object skeleton being identified based on one or more properties of the object; mapping (2920; 3020) the object skeleton to the object, wherein the object skeleton is a pre-defined template having one or more joint angles, wherein a joint angle represents a degree of an angle between one or more joints; receiving (2930; 3040) a user skeleton, wherein the user skeleton is an image of a skeleton of a user having one or more joint angles; and mapping (2940; 3050) the user skeleton to the object skeleton such that the object is controlled by the user, wherein the mapping of the user skeleton to the object skeleton comprises: mapping a joint position of the user skeleton to a joint scale of the object skeleton, the object being stretched in response to movement of the joint position of the user skeleton, and mapping at least one of the one or more joint angles of the user skeleton to control a multi-joint animation, the joint position of the user skeleton is adapted to control multiple object joints in a non-linear fashion. mapping a joint position of the user skeleton to a joint scale of the object skeleton, the object being stretched in response to movement of the joint position of the user skeleton, and mapping at least one of the one or more joint angles of the user skeleton to control a multi-joint animation, the joint position of the user skeleton is adapted to control multiple object joints in a non-linear fashion.