mhurhangee/patent-ind-claim-en huggingface dataset:
A connecting device for connecting two components , including a first leg connectable to a first one of the two components in that each one connecting element can be urged into the first component through each one of holes penetrating the first leg , and including a second leg arranged at an angle to the first leg , which is connectable to a second one of the two components by means of a further connecting element , and including a support plate , the support side of which faces an inner surface of the first leg and the mounting side of which faces away from this inner surface , wherein the support plate comprises holes , which each completely penetrate the support plate and which correspond to the holes of the first leg such that the respective connecting element can be urged through the one of the holes of the first leg and the respective hole of the support plate corresponding thereto, wherein a first damping element of a damping material is arranged between the first leg and the support plate , characterized in that at least two of the holes of the support plate extend obliquely with respect to the first leg and parallel with respect to the second leg and mirror-imaged to each other with respect to a mirror plane , which is perpendicular to the first leg and to the second leg .
A vehicle component for a vehicle comprising: a top portion , a bottom portion , a first side portion , and a second side portion , preferably wherein a window opening is located below the top portion and above the bottom portion ; wherein the bottom portion defines a cavity , wherein the cavity comprises a bottom cavity wall , cavity side walls , and a top portion of the cavity having an upper cavity wall ; an insert located within the cavity and attached to the upper cavity wall , the bottom cavity wall , and/or the cavity side walls , wherein the insert is a load bearing element; and an insert cover attached over the insert, on a side of the insert opposite the cavity , wherein the insert cover is a non-load bearing element, wherein the vehicle component is a lift gate which provides access to a rear of the vehicle or wherein the vehicle component is a front end module which provides access to a front of the vehicle, characterized in that the insert covers the cavity as a lid. a top portion , a bottom portion , a first side portion , and a second side portion , preferably wherein a window opening is located below the top portion and above the bottom portion ; wherein the bottom portion defines a cavity , wherein the cavity comprises a bottom cavity wall , cavity side walls , and a top portion of the cavity having an upper cavity wall ; an insert located within the cavity and attached to the upper cavity wall , the bottom cavity wall , and/or the cavity side walls , wherein the insert is a load bearing element; and an insert cover attached over the insert, on a side of the insert opposite the cavity , wherein the insert cover is a non-load bearing element, wherein the vehicle component is a lift gate which provides access to a rear of the vehicle or wherein the vehicle component is a front end module which provides access to a front of the vehicle, characterized in that the insert covers the cavity as a lid.
An apparatus for encoding configured to: include at least one static media item as at least one meta box into a container file according to the International Standards Organization Base Media File Format ISO/IEC 14496-12 (ISOBMFF); include one or more media tracks into the container file as one or more track boxes according to the ISOBMFF, wherein the apparatus is characterized by being configured to; include in the container file a box (EntityToGroupBox) specifying a group of entities, wherein the box (EntityToGroupBox) comprises a list of entity identifier values that indicate the at least one static media item and the one or more media tracks are entities of the group of entities, wherein the list of entity identifier values comprises an item identifier value for each of the at least one static media item and a track identifier value for each of the one or more media tracks; and include in the box (EntityToGroupBox) of the container file, a grouping type (grouping_type) for the group, wherein the grouping type indicates that the entities of the group of entities are alternatives to each other for processing. include at least one static media item as at least one meta box into a container file according to the International Standards Organization Base Media File Format ISO/IEC 14496-12 (ISOBMFF); include one or more media tracks into the container file as one or more track boxes according to the ISOBMFF, wherein the apparatus is characterized by being configured to; include in the container file a box (EntityToGroupBox) specifying a group of entities, wherein the box (EntityToGroupBox) comprises a list of entity identifier values that indicate the at least one static media item and the one or more media tracks are entities of the group of entities, wherein the list of entity identifier values comprises an item identifier value for each of the at least one static media item and a track identifier value for each of the one or more media tracks; and include in the box (EntityToGroupBox) of the container file, a grouping type (grouping_type) for the group, wherein the grouping type indicates that the entities of the group of entities are alternatives to each other for processing.
A function estimation hardware logic unit for use in an arithmetic logic unit of a processor, the function estimation hardware logic arranged to calculate, in hardware logic, an improved estimate, x n +1 , for a function of an input value, d, wherein the function is 1 / d i , and the hardware logic comprising: a first input arranged to receive the input value, d; a second input arranged to receive an estimate, x n , for the function of the input value; and an output arranged to output the improved estimate, x n +1 , for the function of the input value; and a combination of multiplier and addition hardware blocks configured in hardware circuitry to implement an m th -order polynomial to determine the improved estimate, x n +1 , with m th order convergence, wherein the m th -order polynomial can be expressed as: f i , m x d = x n + 1 = x n ∏ k = 1 m − 1 1 + 1 ki ∑ j = 0 m − 1 m − 1 j − dx n i j ji + 1 where i and m are natural numbers, wherein m>2, wherein m − 1 j is a binomial coefficient and is equal to zero if j > (m - 1) , wherein m and i have any combination of values except for m=3 and i=2. a first input arranged to receive the input value, d; a second input arranged to receive an estimate, x n , for the function of the input value; and an output arranged to output the improved estimate, x n +1 , for the function of the input value; and a combination of multiplier and addition hardware blocks configured in hardware circuitry to implement an m th -order polynomial to determine the improved estimate, x n +1 , with m th order convergence, wherein the m th -order polynomial can be expressed as: f i , m x d = x n + 1 = x n ∏ k = 1 m − 1 1 + 1 ki ∑ j = 0 m − 1 m − 1 j − dx n i j ji + 1 where i and m are natural numbers, wherein m>2, wherein m − 1 j is a binomial coefficient and is equal to zero if j > (m - 1) , wherein m and i have any combination of values except for m=3 and i=2.
A system comprising: a plurality of processors including at least a microcontroller and a high-power application processor each configured to be placed in a suspended state; and an analog front-end implemented in hardware and configured to: convert an analog signal generated by a force sensor into a digital signal; store samples of the digital signal in a buffer; filter the digital signal in order to determine deviations in a rate of change of the signal from a baseline value and responsive to the filtered digital signal passing one or more threshold values, wake the microcontroller from the suspended state to analyze the samples of the digital signal in the buffer to determine whether the digital signal corresponds to a human gesture, the microcontroller configured to wake the high-power application processor from the suspended state to process the human gesture based on the digital signal being recognized as a human gesture. a plurality of processors including at least a microcontroller and a high-power application processor each configured to be placed in a suspended state; and an analog front-end implemented in hardware and configured to: convert an analog signal generated by a force sensor into a digital signal; store samples of the digital signal in a buffer; filter the digital signal in order to determine deviations in a rate of change of the signal from a baseline value and responsive to the filtered digital signal passing one or more threshold values, wake the microcontroller from the suspended state to analyze the samples of the digital signal in the buffer to determine whether the digital signal corresponds to a human gesture, the microcontroller configured to wake the high-power application processor from the suspended state to process the human gesture based on the digital signal being recognized as a human gesture. convert an analog signal generated by a force sensor into a digital signal; store samples of the digital signal in a buffer; filter the digital signal in order to determine deviations in a rate of change of the signal from a baseline value and responsive to the filtered digital signal passing one or more threshold values, wake the microcontroller from the suspended state to analyze the samples of the digital signal in the buffer to determine whether the digital signal corresponds to a human gesture, the microcontroller configured to wake the high-power application processor from the suspended state to process the human gesture based on the digital signal being recognized as a human gesture.
A batch sample preparation apparatus for preparing a geological sample for analysis, the apparatus comprising: • a dryer having a drying chamber , a sample inlet and at least one sample outlet communicating with said drying chamber ; • a comminution device in selective fluid communication with said dryer to selectively receive dried sample from said at least one sample outlet ; and • a source of fluid introduced at said dryer so that sample material may be transported from said dryer to said comminution device by fluid flow, said fluid flow also extracting the sample material from the comminution device for collection and subsequent analysis; • at least one cyclone located downstream of said dryer , for separating sample material from the fluid, wherein the at least one cyclone comprises a first cyclone disposed between said at least two sample outlets and a first inlet of the comminution device and a second cyclone disposed at an outlet of the comminution device , each cyclone having a corresponding underflow port and an overflow port ; wherein the comminution device includes a control inlet arranged in fluid communication with an external environment, and having a control valve for controlling fluid flow through said control inlet . • a dryer having a drying chamber , a sample inlet and at least one sample outlet communicating with said drying chamber ; • a comminution device in selective fluid communication with said dryer to selectively receive dried sample from said at least one sample outlet ; and • a source of fluid introduced at said dryer so that sample material may be transported from said dryer to said comminution device by fluid flow, said fluid flow also extracting the sample material from the comminution device for collection and subsequent analysis; • at least one cyclone located downstream of said dryer , for separating sample material from the fluid, wherein the at least one cyclone comprises a first cyclone disposed between said at least two sample outlets and a first inlet of the comminution device and a second cyclone disposed at an outlet of the comminution device , each cyclone having a corresponding underflow port and an overflow port ;
A method, comprising: performing an action of a first sub-task of a collaborative task with a first collaborative robot in a robotic cell while a second collaborative robot operates in the robotic cell according to a recorded action of the second collaborative robot, the recorded action of the second collaborative robot recorded while a second robot controller associated with the second collaborative robot is trained to control the second collaborative robot to perform a second sub-task of the collaborative task as a standalone robot without information regarding the sub-task to be performed by the first robot ; and training a first robot controller associated with the first collaborative robot based at least on a sensing of an interaction of the first collaborative robot with the second collaborative robot while the action of the first sub-task is performed by the first collaborative robot and the second collaborative robot operates according to the recorded action. performing an action of a first sub-task of a collaborative task with a first collaborative robot in a robotic cell while a second collaborative robot operates in the robotic cell according to a recorded action of the second collaborative robot, the recorded action of the second collaborative robot recorded while a second robot controller associated with the second collaborative robot is trained to control the second collaborative robot to perform a second sub-task of the collaborative task as a standalone robot without information regarding the sub-task to be performed by the first robot ; and training a first robot controller associated with the first collaborative robot based at least on a sensing of an interaction of the first collaborative robot with the second collaborative robot while the action of the first sub-task is performed by the first collaborative robot and the second collaborative robot operates according to the recorded action.
1. A welding method for sealing a cooling-water channel of an electric-machine housing , characterized by the steps of: a) sealing the opened ends of the cooling-water channel using sealing parts to form an S-shaped sealed cooling water channel inside the electric-machine housing , wherein the sealing parts are placed inside sealing-part slots, the sealing-part slots being located outside the turning channels at the ends of the electric-machine housing in a circumferential direction, and wherein each sealing slot is an independent slot of any shape, that corresponds to the shape, and number of water-cooling channels' design respectively, and b) welding each of the sealing parts and the electric-machine-housing together by friction-stir-welding, in one single and complete single-welding-seam mode, so that the sealing parts placed inside the sealing slots form sealing end blocks that seals the turning channels to form the complete S-shaped cooling water sealed channel. a) sealing the opened ends of the cooling-water channel using sealing parts to form an S-shaped sealed cooling water channel inside the electric-machine housing , wherein the sealing parts are placed inside sealing-part slots, the sealing-part slots being located outside the turning channels at the ends of the electric-machine housing in a circumferential direction, and wherein each sealing slot is an independent slot of any shape, that corresponds to the shape, and number of water-cooling channels' design respectively, and b) welding each of the sealing parts and the electric-machine-housing together by friction-stir-welding, in one single and complete single-welding-seam mode, so that the sealing parts placed inside the sealing slots form sealing end blocks that seals the turning channels to form the complete S-shaped cooling water sealed channel.
A method performed by a device for providing configurable feedback latency in a communication system ir which a feedback information message is sent after reception of a data transmission, the method comprising transmitting a single combined feedback information message following receipt of a configurable number of received transport blocks, the feedback information message being generated according to a method selected from: i) generating the feedback information message after all transport blocks of the configurable number of transport blocks have been received; ii) generating the feedback information message after all transport blocks of the configurable number of transport blocks have been received if all the transport blocks are received error free, otherwise generating the feedback information message after a receipt of a transport block containing an error; and iii) generating the positive feedback information message, ACK, if a ratio of erroneous transport blocks to error free transport blocks within a feedback period is less than a predetermined value, otherwise generating the negative feedback information message, NACK, wherein the single combined feedback information message contains one of a positive feedback information message, ACK, and a negative feedback information message, NACK, and which indicates a correctness of receipt of the configurable number of received transport blocks and wherein a hybrid automatic repeat request, HARQ, process group is selected for transmitting the configurable number of transport blocks of a given transmission service with a latency requirement, wherein the selected HARQ process group is the HARQ process group that has a smallest number of HARQ processes within a set of selectable HARQ process groups whose range of feedback period is able to fulfil the latency requirement of the given transmission service. i) generating the feedback information message after all transport blocks of the configurable number of transport blocks have been received; ii) generating the feedback information message after all transport blocks of the configurable number of transport blocks have been received if all the transport blocks are received error free, otherwise generating the feedback information message after a receipt of a transport block containing an error; and iii) generating the positive feedback information message, ACK, if a ratio of erroneous transport blocks to error free transport blocks within a feedback period is less than a predetermined value, otherwise generating the negative feedback information message, NACK,
A ribbed and grooved fiber cable comprising: a core with a plurality of optical fibers; a sheath enveloping the core, wherein the sheath has an outer surface and an inner surface, wherein the outer surface of the sheath has a plurality of external ribs and a plurality of external grooves ; and at least one of one or more strength members embedded in the sheath , a plurality of ribs and grooves on an external surface of the sheath , and a plurality of ribs and grooves on an internal surface of the sheath , wherein the plurality of ribs have variable height, wherein the one or more strength members are coated with a water blocking coating material having at least one of an ultraviolet (UV) curable water swellable resin composition and a layer of ethylene acrylic acid (EAA). a core with a plurality of optical fibers; a sheath enveloping the core, wherein the sheath has an outer surface and an inner surface, wherein the outer surface of the sheath has a plurality of external ribs and a plurality of external grooves ; and at least one of one or more strength members embedded in the sheath , a plurality of ribs and grooves on an external surface of the sheath , and a plurality of ribs and grooves on an internal surface of the sheath , wherein the plurality of ribs have variable height, wherein the one or more strength members are coated with a water blocking coating material having at least one of an ultraviolet (UV) curable water swellable resin composition and a layer of ethylene acrylic acid (EAA).
An inductive detection type rotary encoder, comprising: a stator ; a rotor that is engaged with a rotation shaft to rotate along with the rotation shaft and faces the stator in an axial direction; at least two transmission windings (S1, S2) that are formed coaxially to the rotation shaft on a surface of the stator facing the rotor , formed annularly around the rotation shaft and disposed from an inner peripheral side to an outer peripheral side; at least two reception windings (R1, R2) that are formed coaxially to the rotation shaft on the surface of the stator , formed annularly around the rotation shaft along the transmission windings (S1, S2) and disposed from the inner peripheral side to the outer peripheral side; and at least two magnetic flux coupling bodies (M1, M2) that are formed coaxially to the rotation shaft on the surface of the rotor facing the stator , formed annularly around the rotation shaft to be magnetic flux coupled with the transmission windings (S1, S2) and the reception windings (R1, R2) and disposed from the inner peripheral side to the outer peripheral side, the inductive detection type rotary encoder being characterized in that one ends of one of the reception windings (R1) and another of the reception windings (R2) are commonly connected, and the other ends of the one of the reception windings (R1) and the another of the reception windings (R2) are each led out by a lead-out wiring. a stator ; a rotor that is engaged with a rotation shaft to rotate along with the rotation shaft and faces the stator in an axial direction; at least two transmission windings (S1, S2) that are formed coaxially to the rotation shaft on a surface of the stator facing the rotor , formed annularly around the rotation shaft and disposed from an inner peripheral side to an outer peripheral side; at least two reception windings (R1, R2) that are formed coaxially to the rotation shaft on the surface of the stator , formed annularly around the rotation shaft along the transmission windings (S1, S2) and disposed from the inner peripheral side to the outer peripheral side; and at least two magnetic flux coupling bodies (M1, M2) that are formed coaxially to the rotation shaft on the surface of the rotor facing the stator , formed annularly around the rotation shaft to be magnetic flux coupled with the transmission windings (S1, S2) and the reception windings (R1, R2) and disposed from the inner peripheral side to the outer peripheral side, the inductive detection type rotary encoder being characterized in that one ends of one of the reception windings (R1) and another of the reception windings (R2) are commonly connected, and the other ends of the one of the reception windings (R1) and the another of the reception windings (R2) are each led out by a lead-out wiring.
A thermoplastic resin composition comprising: a graft copolymer, which is prepared by graft-polymerizing an aromatic vinyl-based monomer and a vinyl cyan-based monomer onto an acrylic rubber polymer; a first matrix copolymer, which includes a C 1 -C 3 alkyl (meth)acrylate-based monomer unit, an aromatic vinyl-based monomer unit and a vinyl cyan-based monomer unit; a second matrix copolymer, which includes a C 1 -C 3 alkyl (meth)acrylate-based monomer unit, an aromatic vinyl-based monomer unit and a vinyl cyan-based monomer unit; and an additive, which includes a polymer including a C 1 -C 3 alkyl (meth)acrylate-based monomer unit, wherein the first matrix copolymer and the second matrix copolymer have different weight-average molecular weights. a graft copolymer, which is prepared by graft-polymerizing an aromatic vinyl-based monomer and a vinyl cyan-based monomer onto an acrylic rubber polymer; a first matrix copolymer, which includes a C 1 -C 3 alkyl (meth)acrylate-based monomer unit, an aromatic vinyl-based monomer unit and a vinyl cyan-based monomer unit; a second matrix copolymer, which includes a C 1 -C 3 alkyl (meth)acrylate-based monomer unit, an aromatic vinyl-based monomer unit and a vinyl cyan-based monomer unit; and an additive, which includes a polymer including a C 1 -C 3 alkyl (meth)acrylate-based monomer unit, wherein the first matrix copolymer and the second matrix copolymer have different weight-average molecular weights.