mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communications, comprising: generating a two-dimensional polar code of size N, wherein the two-dimensional polar code has K columns and M rows, wherein N = K x M, corresponding to an outer encoding operation with a code of length K, and an inner encoding operation with a code of length M; determining a plurality of locations of row-wise block codes having a rate of 1 within the two-dimensional polar code; generating redundancy check information based on portions of a sequence of information bits, the portions being defined by the plurality of locations of the row-wise block codes having a rate of 1; inserting the redundancy check information in the sequence of information bits at locations corresponding to the plurality of locations of the row-wise block codes having a rate of 1; generating a codeword based on the sequence of information bits, including the redundancy check information; and transmitting the codeword over a wireless channel. generating a two-dimensional polar code of size N, wherein the two-dimensional polar code has K columns and M rows, wherein N = K x M, corresponding to an outer encoding operation with a code of length K, and an inner encoding operation with a code of length M; determining a plurality of locations of row-wise block codes having a rate of 1 within the two-dimensional polar code; generating redundancy check information based on portions of a sequence of information bits, the portions being defined by the plurality of locations of the row-wise block codes having a rate of 1; inserting the redundancy check information in the sequence of information bits at locations corresponding to the plurality of locations of the row-wise block codes having a rate of 1; generating a codeword based on the sequence of information bits, including the redundancy check information; and transmitting the codeword over a wireless channel.
A cooking system for cooking food, the cooking system being functional in a plurality of cooking modes, the cooking system comprising: a housing defining a hollow chamber configured to receive a food container , said housing having an upper portion defining an opening to said hollow chamber ; a first lid adapted to cover said opening to said hollow chamber , the cooking system configured to operate in an air frying mode when said first lid covers said opening; and a first heating element associated with said housing and a second heating element associated with said first lid ; characterised by a second lid configured to couple to at least one of said housing and said food container to cover said opening to said hollow chamber when the cooking system operates in a conductive cooking mode. a housing defining a hollow chamber configured to receive a food container , said housing having an upper portion defining an opening to said hollow chamber ; a first lid adapted to cover said opening to said hollow chamber , the cooking system configured to operate in an air frying mode when said first lid covers said opening; and a first heating element associated with said housing and a second heating element associated with said first lid ; characterised by a second lid configured to couple to at least one of said housing and said food container to cover said opening to said hollow chamber when the cooking system operates in a conductive cooking mode.
A trampoline frame, formed by multiple frame pipes which are connected in turns, wherein adjacent two frame pipes are connected by a frame connector , said frame connector is a T-shaped pipe composed of a horizontal pipe and a vertical pipe ; the outer diameter of said horizontal pipe is slightly smaller than the inner diameter of said frame pipe ; the opposite two ends of said horizontal pipe are inserted into the adjacent frame pipes so as to form a closed trampoline frame; the top surface of said frame pipe is provided with a plurality of equally spaced upper frame holes , the bottom surface of said frame pipe is provided with a plurality of equally spaced lower frame holes , and said upper frame holes and said lower frame holes are staggered in pairs; the top surface of said horizontal pipe is provided with a plurality of equally spaced upper insert holes , the bottom surface of said horizontal pipe is provided with a plurality of equally spaced lower insert holes , and said upper insert holes and said lower insert holes are staggered in pairs; when said two ends of said horizontal pipe are inserted into the adjacent two frame pipes , each of said upper insert holes coincides with the corresponding said upper frame hole respectively, and each of said lower insert holes coincides with the corresponding said lower frame hole respectively.
A side portion for a chain link of an energy guiding chain designed for guiding supply lines, in which adjacent chain links are connected pivotably relative to each other about a pivot axis (s), wherein the side portion for the pivotable arrangement of adjacent chain links has at the end a respective overlap region which for limiting the pivotal movement is provided with corresponding abutment surfaces and with a pivot axis (s), that is to say a first overlap region having first abutment surfaces and a second overlap region having second abutment surfaces , and a slide plane (G) for slip movement of the two overlap regions in the position of installation against the respectively associated overlap region of adjacent chain links , and for damping the deceleration of the pivotal movement there is arranged in front of at least each first abutment surface a damping element in the form of a spring lip resiliently deformable about a bending axis (b) parallel to the pivot axis (s), characterised in that the spring lip is arranged fixed in opposite relationship to its extension direction (e) perpendicular to the slide plane at least partially at a side wall of the side portion and has an end region extending away from the side portion which is axial with respect to its bending axis (b) for at least predominantly coupling in the kinetic energy which is transmitted to said spring lip by way of the second abutment surface which in the position of installation of the side portion in the chain link of the energy guiding chain corresponds in abutment-operative relationship with the first abutment surface , said second abutment surface being the abutment surface of the second overlap region of the chain link which is adjacent in the position of installation.
A high-frequency heating apparatus comprising: a heating chamber having a wall surface including metal and being configured to accommodate a heating target ; a generator configured to generate high-frequency power; a radiator having a loop antenna including a plurality of loop portions , and configured to radiate the high-frequency power generated by the generator to the heating chamber ; and a controller configured to control a frequency of the high-frequency power generated by the generator , characterised in that the plurality of loop portions has different lengths from each other, each of the plurality of loop portions has a length equal to an integral multiple of half of a wavelength of the high-frequency power, the controller is configured to cause the generator to output the high-frequency power at a frequency at which resonance is generated in one of the plurality of loop portions , so that the high-frequency power is radiated from the one of the plurality of loop portions , and the controller is configured to cause the generator to output the high-frequency power at a frequency at which resonance is generated in another of the plurality of loop portions , so that the high-frequency power is radiated from the another of the plurality of loop portions . a heating chamber having a wall surface including metal and being configured to accommodate a heating target ; a generator configured to generate high-frequency power; a radiator having a loop antenna including a plurality of loop portions , and configured to radiate the high-frequency power generated by the generator to the heating chamber ; and a controller configured to control a frequency of the high-frequency power generated by the generator , characterised in that the plurality of loop portions has different lengths from each other, each of the plurality of loop portions has a length equal to an integral multiple of half of a wavelength of the high-frequency power, the controller is configured to cause the generator to output the high-frequency power at a frequency at which resonance is generated in one of the plurality of loop portions , so that the high-frequency power is radiated from the one of the plurality of loop portions , and the controller is configured to cause the generator to output the high-frequency power at a frequency at which resonance is generated in another of the plurality of loop portions , so that the high-frequency power is radiated from the another of the plurality of loop portions .
A method comprising: receiving a library of putting information for executing a putt of a golf ball to a golf hole located on a golf green, the library comprising at least a plurality of simulated putting strokes, each simulated putting stroke associated with a respective use of a golf putter for executing the putt of the golf ball to the golf hole; compiling a set of golfer putting data, the set of golfer putting data including (i) a green speed associated with the golf green; and (ii) data specific to a plurality of actual putting strokes performed by a golfer using the golf putter for executing the putt of the golf ball to the golf hole, the data specific to the plurality of actual putting strokes captured using a user device; determining a representative putting stroke for the golfer associated with the putt based on a comparison between a calculated average player value with that of the set of golfer putting data compiled for the same putt distance and same green speed; comparing the plurality of simulated putting strokes to the plurality of actual putting strokes and determining a putting stroke offset; adjusting the representative putting stroke using the putting stroke offset; and communicating the adjusted representative putting stroke to the golfer by rendering, via a mobile device and in response to the mobile device moving from a first position to a second position, haptic sensations to the golfer using a set of haptic data corresponding to the executing of the putt of the golf ball by the golfer. receiving a library of putting information for executing a putt of a golf ball to a golf hole located on a golf green, the library comprising at least a plurality of simulated putting strokes, each simulated putting stroke associated with a respective use of a golf putter for executing the putt of the golf ball to the golf hole; compiling a set of golfer putting data, the set of golfer putting data including (i) a green speed associated with the golf green; and (ii) data specific to a plurality of actual putting strokes performed by a golfer using the golf putter for executing the putt of the golf ball to the golf hole, the data specific to the plurality of actual putting strokes captured using a user device; determining a representative putting stroke for the golfer associated with the putt based on a comparison between a calculated average player value with that of the set of golfer putting data compiled for the same putt distance and same green speed; comparing the plurality of simulated putting strokes to the plurality of actual putting strokes and determining a putting stroke offset; adjusting the representative putting stroke using the putting stroke offset; and communicating the adjusted representative putting stroke to the golfer by rendering, via a mobile device and in response to the mobile device moving from a first position to a second position, haptic sensations to the golfer using a set of haptic data corresponding to the executing of the putt of the golf ball by the golfer.
A circuit for a battery charger, the circuit comprising: a switching circuit having a control input, a clock input, and a switching output configured to connect to an external inductive element ; a charging terminal configured to electrically connect the external inductive element to a battery terminal to provide power to charge a battery connected to the battery terminal; a control terminal (CONTROL); a clock terminal (CLOCK); a feedback compensation network comprising a plurality of feedback control loops including a battery temperature sense circuit and configured to feed into a comparator ; the comparator configured to serve as a source of an internally generated control signal; a control selector configured to select to operate in a first configuration that provides the internally generated control signal to the control terminal (CONTROL) and to the control input or to operate in a second configuration that provides an externally generated control signal received on the control terminal (CONTROL) to the control input; and a clock selector configured to select to operate in a first configuration that provides an internally generated clock signal to the clock terminal (CLK) and to the clock input or to operate in a second configuration that provides an externally generated clock signal received on the clock terminal (CLK) to the clock input. a switching circuit having a control input, a clock input, and a switching output configured to connect to an external inductive element ; a charging terminal configured to electrically connect the external inductive element to a battery terminal to provide power to charge a battery connected to the battery terminal; a control terminal (CONTROL); a clock terminal (CLOCK); a feedback compensation network comprising a plurality of feedback control loops including a battery temperature sense circuit and configured to feed into a comparator ; the comparator configured to serve as a source of an internally generated control signal; a control selector configured to select to operate in a first configuration that provides the internally generated control signal to the control terminal (CONTROL) and to the control input or to operate in a second configuration that provides an externally generated control signal received on the control terminal (CONTROL) to the control input; and a clock selector configured to select to operate in a first configuration that provides an internally generated clock signal to the clock terminal (CLK) and to the clock input or to operate in a second configuration that provides an externally generated clock signal received on the clock terminal (CLK) to the clock input.
A downhole cleaning apparatus comprising: a tubular body comprising a plurality of openings therethrough, wherein each opening defines at least part of a helix extending longitudinally and circumferentially about the body; and a plurality of cleaning elements configured to extend through the openings and to extend outwards from an outer surface of the body, wherein the cleaning elements are distributed about the body and each cleaning element defines at least part of a helix extending longitudinally and circumferentially about the body, wherein the openings and cleaning elements are grouped to define a plurality of substantially continuous helical paths, each of which extend substantially end to end of the tubular body and are distributed to define a cleaning surface of at least 360 degrees; wherein the helical paths define a plurality of flutes and ribs , each flute being defined by at least part of a helix extending longitudinally and circumferentially about the body, wherein a rib is defined between each flute; wherein the said openings are provided through the ribs ; wherein the cleaning elements are retractable and extendable, wherein, when retracted, the cleaning elements are storeable within the body until required for use; and wherein, when the cleaning elements are retracted, the ribs define the outermost surfaces of the cleaning apparatus; and wherein the cleaning elements are extendable wherein they extend outwards from the outermost surface of the body. a tubular body comprising a plurality of openings therethrough, wherein each opening defines at least part of a helix extending longitudinally and circumferentially about the body; and a plurality of cleaning elements configured to extend through the openings and to extend outwards from an outer surface of the body, wherein the cleaning elements are distributed about the body and each cleaning element defines at least part of a helix extending longitudinally and circumferentially about the body, wherein the openings and cleaning elements are grouped to define a plurality of substantially continuous helical paths, each of which extend substantially end to end of the tubular body and are distributed to define a cleaning surface of at least 360 degrees; wherein the helical paths define a plurality of flutes and ribs , each flute being defined by at least part of a helix extending longitudinally and circumferentially about the body, wherein a rib is defined between each flute; wherein the said openings are provided through the ribs ; wherein the cleaning elements are retractable and extendable, wherein, when retracted, the cleaning elements are storeable within the body until required for use; and wherein, when the cleaning elements are retracted, the ribs define the outermost surfaces of the cleaning apparatus; and wherein the cleaning elements are extendable wherein they extend outwards from the outermost surface of the body.
A method performed by a wireless device in a wireless communication system, the method comprising: receiving (S1001) information on one or more threshold heights between a plurality of height spans, wherein the one or more threshold heights divide an entire height space into the plurality of height spans, and wherein each of the plurality of height spans covers a unique height range; applying a first configuration associated with a first height span where the wireless device belongs; monitoring (S1002) a current height of the wireless device ; and transmitting (S1303, S1307), to an Access and Mobility management Function, AMF, a registration request message including height information for the wireless device, based on the current height being changed from the first height span to a second height span; and receiving (S1304, S1308), from the AMF, a registration accept message including a second configuration associated with the second height span, wherein the second configuration is different from the first configuration, and wherein the first configuration and the second configuration include (i) a network slice configuration, (ii) an Internet Protocol, IP, Multimedia Subsystem, IMS, configuration, (iii) a Multicast and Broadcast Services, MBS, configuration, and (iv) a slice priority or slice group priority information, respectively. receiving (S1001) information on one or more threshold heights between a plurality of height spans, wherein the one or more threshold heights divide an entire height space into the plurality of height spans, and wherein each of the plurality of height spans covers a unique height range; applying a first configuration associated with a first height span where the wireless device belongs; monitoring (S1002) a current height of the wireless device ; and transmitting (S1303, S1307), to an Access and Mobility management Function, AMF, a registration request message including height information for the wireless device, based on the current height being changed from the first height span to a second height span; and receiving (S1304, S1308), from the AMF, a registration accept message including a second configuration associated with the second height span, wherein the second configuration is different from the first configuration, and wherein the first configuration and the second configuration include (i) a network slice configuration, (ii) an Internet Protocol, IP, Multimedia Subsystem, IMS, configuration, (iii) a Multicast and Broadcast Services, MBS, configuration, and (iv) a slice priority or slice group priority information, respectively.
A chromatographic method for purification of therapeutic proteins from plasma, comprising the following steps: loading plasma on a chromatography column packed with a resin comprising porous lid beads having an inner porous core and an outer porous lid, wherein the inner core is provided with anion exchange ligands, and wherein the porosity of the lid and core does not allow entering of molecules larger than 500kD; adsorbing Factor IX (FIX) on the anion exchange ligands in the core; collecting separated plasma proteins in the flow through; and eluting FIX from the ligands in the core.
A flat steel product which consists of a steel substrate produced from a steel comprising 0.1-3% by weight Mn and 0.0005-0.01% by weight B and a protective coating based on Al that is applied to the steel substrate, wherein the protective coating is an AlSi coating with a Si content of 3-15% by weight and optionally up to 5% by weight Fe and wherein the protective coating contains, as additional alloy constituents, in total 0.11-0.7% by weight of at least two elements from the group of alkaline earth metals or transition metals which have a higher affinity for oxygen than aluminium, provided that the magnesium content of the protective coating is at least 0.1% by weight and the calcium content of the protective coating is at least 0.01% by weight, and that it optionally contains in total up to 20% by weight of other alloy elements.