mhurhangee/patent-ind-claim-en huggingface dataset:
An uplink channel transmission method, comprising: determining, by user equipment, UE, to transmit information by using first channels on n first time units numbered i, and transmit information by using second channels on m second time units numbered j, wherein a length of the first time unit numbered i is a first transmission time interval, TTI, a length of the second time unit numbered j is a second TTI, the second TTI is shorter than the first TTI, allocating, by the UE, transmit power to L uplink channels and transmitting, by the UE, the L uplink channels, wherein at least one first time unit numbered i and at least one second time unit numbered j overlap, and information transmitted by using the first channel and information transmitted by using the second channel respectively correspond to different cells; characterized in that the method further comprises determining, by the UE, a maximum uplink transmission time difference between the n first time units numbered i and the m second time units numbered j, wherein the maximum uplink transmission time difference is a maximum difference between n start transmission time points of the n first time units numbered i and m start transmission time points of the m second time units numbered j; wherein the UE allocates the transmit power to the L uplink channels according to the determined maximum uplink transmission time difference, wherein the L uplink channels comprise at least k second channels in the m second channels, and 1 ≤ k ≤ m. determining, by user equipment, UE, to transmit information by using first channels on n first time units numbered i, and transmit information by using second channels on m second time units numbered j, wherein a length of the first time unit numbered i is a first transmission time interval, TTI, a length of the second time unit numbered j is a second TTI, the second TTI is shorter than the first TTI, allocating, by the UE, transmit power to L uplink channels and transmitting, by the UE, the L uplink channels, wherein at least one first time unit numbered i and at least one second time unit numbered j overlap, and information transmitted by using the first channel and information transmitted by using the second channel respectively correspond to different cells; characterized in that the method further comprises determining, by the UE, a maximum uplink transmission time difference between the n first time units numbered i and the m second time units numbered j, wherein the maximum uplink transmission time difference is a maximum difference between n start transmission time points of the n first time units numbered i and m start transmission time points of the m second time units numbered j; wherein the UE allocates the transmit power to the L uplink channels according to the determined maximum uplink transmission time difference, wherein the L uplink channels comprise at least k second channels in the m second channels, and 1 ≤ k ≤ m.
A ceramic end mill comprising a cutting edge portion that includes a plurality of cutting edges and gashes , the plurality of cutting edges being arranged on a distal end portion side of a tool body in an axis direction spaced in a rotation direction, the gashes being formed between the cutting edges adjacent in the rotation direction, characterized in that the respective cutting edges include center cut edges (10a - 10f), end cutting edges (2a - 2f), and peripheral cutting edges (13a - 13f), the center cut edges (10a - 10f) being disposed from parts close to a rotation axis (O) to an outer peripheral side in a radial direction, the center cut edges (10a - 10f) facing the rotation axis (O), the end cutting edges (2a - 2f) being continuous with the center cut edges (10a - 10f), the peripheral cutting edges (13a - 13f) being continuous from the end cutting edges (2a - 2f) to a tool rear end side, and respective center grooves (10A - 10F) are formed on rear sides of the center cut edges (10a - 10f) and the end cutting edges (2a - 2f) in the rotation direction continuous in the radial direction, the center grooves (10A - 10F) being continuous with positions where end cutting edge second surfaces (4a - 4f) face the rotation axis (O), alternatively, the center grooves (10A - 10F) being continuous with positions where the end cutting edge second surfaces (4a - 4f) approach the rotation axis (O), the end cutting edge second surfaces (4a - 4f) being laid between the center cut edges (10a - 10f) and the end cutting edges (2a - 2f), the respective center grooves (10A - 10F) being formed between the end cutting edge second surfaces (4a - 4f) and the center cut edges (10a - 10f) positioned on a rear side of the end cutting edge second surfaces (4a - 4f) in the rotation direction, the center grooves (10A - 10F) passing on the rotation axis (O), the center grooves (10A - 10F) doubling as rake faces of the respective center cut edges, the center grooves (10A - 10D) being continuous with the inner peripheral side of the gashes in the radial direction, wherein the end cutting edges (2a - 2d) have concave slope angles (α) and wherein the end cutting edge second surfaces (4a - 4d) inclining between the outer peripheral side in the radial direction and the rotation axis O side from a distal end side in the rotation axis O direction to a rear side of the tool body in the axis direction, and wherein the center grooves (10A - 10D) and the end cutting edge second surfaces (4a - 4d) are arranged in alternation in the rotation direction of the rotation axis O at parts of the end cutting edge second surfaces (4a - 4d) close to the rotation axis.
A module for providing security to an in-vehicle communication network having a bus and at least one node (62-66, 72-79) connected to the bus, the module comprising: a memory having software comprising data characterizing messages that the at least one node transmits and receives via the bus during normal operation of the node; a communication port via which the module receives and transmits messages configured to be connected to a portion of the in-vehicle network; and a processor that processes messages received via the port from the portion of the in-vehicle network responsive to the software in the memory to: identify an anomalous message in the received messages indicative of exposure of the in-vehicle network to damage from a cyber attack; cause the module to transmit at least one signal via the port to the portion of the in-vehicle network that alters the anomalous message so that the at least one node will discard the anomalous message; keep a log of performance data relevant to determining how frequently the processor generates false positives or false negatives in identifying messages as anomalous messages; and process the logged data to determine how to process messages the module receives via the port or transmit the logged data to an external hub. a memory having software comprising data characterizing messages that the at least one node transmits and receives via the bus during normal operation of the node; a communication port via which the module receives and transmits messages configured to be connected to a portion of the in-vehicle network; and a processor that processes messages received via the port from the portion of the in-vehicle network responsive to the software in the memory to: identify an anomalous message in the received messages indicative of exposure of the in-vehicle network to damage from a cyber attack; cause the module to transmit at least one signal via the port to the portion of the in-vehicle network that alters the anomalous message so that the at least one node will discard the anomalous message; keep a log of performance data relevant to determining how frequently the processor generates false positives or false negatives in identifying messages as anomalous messages; and process the logged data to determine how to process messages the module receives via the port or transmit the logged data to an external hub. identify an anomalous message in the received messages indicative of exposure of the in-vehicle network to damage from a cyber attack; cause the module to transmit at least one signal via the port to the portion of the in-vehicle network that alters the anomalous message so that the at least one node will discard the anomalous message; keep a log of performance data relevant to determining how frequently the processor generates false positives or false negatives in identifying messages as anomalous messages; and process the logged data to determine how to process messages the module receives via the port or transmit the logged data to an external hub.
A pharmaceutical composition for use in the treatment of an autoimmune disease or disorder in a subject, the composition comprising: (i) antibodies for inducing apoptosis in T cells, wherein the antibodies are an anti-CD8 antibody and an anti-CD20 antibody; and (ii) an autoantigen specific to the autoimmune disease or disorder, selected from the group consisting of myelin basic protein (MBP), myelin proteolipid protein (PLP), insulin, GAD65 (glutamic acid decarboxylase), DiaPep227, heat-shock proteins, preferably Hsp65, Hsp90 and DnaJ, immunoglobulin binding protein (BiP), heterogeneous nuclear RNPs, annexin V, calpastatin, type II collagen, glucose-6-phosphate isomerase (GPI), elongation factor human cartilage gp39, and mannose binding lectin (MBL); wherein the subject is tolerized to an antigen of the autoimmune disease. (i) antibodies for inducing apoptosis in T cells, wherein the antibodies are an anti-CD8 antibody and an anti-CD20 antibody; and (ii) an autoantigen specific to the autoimmune disease or disorder, selected from the group consisting of myelin basic protein (MBP), myelin proteolipid protein (PLP), insulin, GAD65 (glutamic acid decarboxylase), DiaPep227, heat-shock proteins, preferably Hsp65, Hsp90 and DnaJ, immunoglobulin binding protein (BiP), heterogeneous nuclear RNPs, annexin V, calpastatin, type II collagen, glucose-6-phosphate isomerase (GPI), elongation factor human cartilage gp39, and mannose binding lectin (MBL);
A Li 2 O bearing metallurgical slag comprising Al 2 O 3 , SiO 2 , CaO, and MnO, characterized by a by-weight composition according to: Co < 1%; 3% < Li 2 O < 20%; 1% < MnO < 7%; 38% < Al 2 O 3 < 65%; CaO < 55%; SiO 2 < 45%; and, Li 2 O + Al 2 O 3 + SiO 2 + CaO + MnO ≥ 73%. Co < 1%; 3% < Li 2 O < 20%; 1% < MnO < 7%; 38% < Al 2 O 3 < 65%; CaO < 55%; SiO 2 < 45%; and, Li 2 O + Al 2 O 3 + SiO 2 + CaO + MnO ≥ 73%.
Method for forming a workpiece for producing a tubular structural component for a motor vehicle by hydroforming, having the following steps: - supplying a tool for hydroforming a workpiece , having at least three movable tool segments , which delimit a shaping cavity for accommodating and forming the workpiece , wherein, in the closed state of the tool , at least parts of the movable tool segments fully form the shaping cavity , - supplying a workpiece which is to be formed, and - forming the workpiece in the tool using high internal fluid pressure, without any process steps for preforming the workpiece, wherein, during the forming operation, all the movable tool segments of the tool are in direct contact with the workpiece , wherein, in the closed state of the tool , in each case two directly adjacent tool segments define a parting line, characterized in that , in the closed state of the tool , the workpiece is not in direct contact with the tool segments in the region of the parting lines and wherein, none of the parting lines is in contact with the workpiece during the forming process, and wherein the structural component obtained by the workpiece-forming operation has undercuts. - supplying a tool for hydroforming a workpiece , having at least three movable tool segments , which delimit a shaping cavity for accommodating and forming the workpiece , wherein, in the closed state of the tool , at least parts of the movable tool segments fully form the shaping cavity , - supplying a workpiece which is to be formed, and - forming the workpiece in the tool using high internal fluid pressure, without any process steps for preforming the workpiece, wherein, during the forming operation, all the movable tool segments of the tool are in direct contact with the workpiece , wherein, in the closed state of the tool , in each case two directly adjacent tool segments define a parting line, characterized in that , in the closed state of the tool , the workpiece is not in direct contact with the tool segments in the region of the parting lines and wherein, none of the parting lines is in contact with the workpiece during the forming process, and wherein the structural component obtained by the workpiece-forming operation has undercuts.
An acylethanolamide composition comprising (percentages by weight): - oleoylethanolamide (OEA) C18:1 60-65% - palmitoylethanolamide (PEA) C16:0 5-20% - linoleylethanolamide (LEA) C18:2 5-20% - stearoylethanolamide (SEA) C18:0 1-2% - palmitoleoylethanolamide (POEA) C16:1 0.1-0.8% - myristoylethanolamide (MEA) C14:0 0.02-0.15% - mixture of glycerides 4-6% - glycerol 6-8%.
A laying unit for segmental arch paving having a circular arc-shaped concave inner side, a circular arc-shaped convex outer side and end sides , wherein the laying unit is divided into several stone elements that are separated from one another and that each have a common base and stone heads arranged thereon that are separated from one another by means of dummy joints , wherein joining units that are spaced apart at equal distances from one another from center point to center point of the units over the entire laying unit are further arranged on the concave inner side and the convex outer side of the laying unit , wherein the joining units each comprise at least one protruding joining portion on the concave inner side and the joining units each comprise at least two protruding joining portions on the convex outer side or vice versa, characterized in that the joining units on the convex outer side are arranged relative to the joining units on the concave inner side such that a straight line running in parallel with the center axis of the laying unit extends through the center of a protruding joining portion on the inner side and through the center of a gap between joining portions on the outer side or vice versa, wherein, when two laying units have been placed one against the other, the associated joining units of an outer side and of an inner side interlock and form an anti-shifting means in both circumferential directions, and in that protruding portions that do not protrude as far as the joining portions are arranged between adjacent joining portions of an joining unit .
Method for producing a shoe , especially a sports shoe, comprising a shoe sole and an upper , wherein the production of the shoe sole comprises the steps: a) Providing a casting mould for forming at least a part of the shoe sole , wherein the casting mould having a bottom region , which lies vertically at the bottom, and having a side region , wherein the side region forming a side wall of the casting mould cavity and initially being open in the end region lying vertically at the top; b) Injecting a first liquid plastic material into a first surface section of the bottom region of the casting mould and at least injecting a second liquid plastic material into a second surface section of the bottom region of the casting mould , wherein the two plastic materials being different, wherein the injection of the liquid plastic material being accomplished by means of at least one nozzle , by means of which the plastic material is injected in a free jet into the respective surface section ; c) Closing the casting mould by means of a cover region lying vertically at the top, which cover region is placed onto the side region of the casting mould , and allowing the plastic materials to solidify; d) Opening of the casting mould and removing the produced moulded part, characterized in that the at least one nozzle is arranged at a location of the side region of the casting mould and all plastic materials are injected from there. a) Providing a casting mould for forming at least a part of the shoe sole , wherein the casting mould having a bottom region , which lies vertically at the bottom, and having a side region , wherein the side region forming a side wall of the casting mould cavity and initially being open in the end region lying vertically at the top; b) Injecting a first liquid plastic material into a first surface section of the bottom region of the casting mould and at least injecting a second liquid plastic material into a second surface section of the bottom region of the casting mould , wherein the two plastic materials being different, wherein the injection of the liquid plastic material being accomplished by means of at least one nozzle , by means of which the plastic material is injected in a free jet into the respective surface section ; c) Closing the casting mould by means of a cover region lying vertically at the top, which cover region is placed onto the side region of the casting mould , and allowing the plastic materials to solidify; d) Opening of the casting mould and removing the produced moulded part,
A bending press for bending metal sheets having an upper beam (21; 61) and a lower beam (26; 66) and having at least one drawer (31, 31A; 71, 71A, 71B; 81; 91; 101), characterised in that the at least one drawer (31, 31A; 71, 71A, 71B; 81; 91; 101) is arranged next to the upper beam (21; 61) or the lower beam (26; 66) and is designed for receiving bending tools and/or parts and that in at least one drawer (31, 31A; 71, 71A, 71B; 81; 91; 101) at least one bending tool receiving unit for bending tools and/or at least one parts receiving unit for parts is provided and in that the at least one bending tool receiving unit and/or the at least one parts receiving unit can be pivoted out of the at least one drawer .
A system for processing chocolate precursors into chocolate, comprising: • a chamber , defining a rotation axis , the chamber comprising: ∘ a first and second portion cooperatively defining a chamber lumen , the first and second portion actuatably separable at a seam, wherein the seam intersects an extraction plane oriented normal to the rotation axis, and ∘ a precursor inlet ; • a precursor dispenser , comprising an actuatable compartment coupled to the precursor inlet of the chamber; • a reducer , arranged within the chamber lumen ; • a processing shaft , intersecting the chamber lumen coaxially with the rotation axis , the processing shaft rotationally actuatable relative to the chamber lumen; • an agitator , coupled to the processing shaft and extending into the chamber lumen ; • a motor comprising a drive shaft , the drive shaft coupled to the processing shaft and the chamber and configured to rotate the processing shaft at a first angular velocity and the chamber at a second angular velocity during operation; • a temperature control system comprising a transfer surface , the transfer surface thermally connectable to the chamber ; and • a mold , defining a mold lumen, the mold circumferentially arranged about the chamber , a portion of the mold lumen intersecting the extraction plane. • a chamber , defining a rotation axis , the chamber comprising: ∘ a first and second portion cooperatively defining a chamber lumen , the first and second portion actuatably separable at a seam, wherein the seam intersects an extraction plane oriented normal to the rotation axis, and ∘ a precursor inlet ; ∘ a first and second portion cooperatively defining a chamber lumen , the first and second portion actuatably separable at a seam, wherein the seam intersects an extraction plane oriented normal to the rotation axis, and ∘ a precursor inlet ; • a precursor dispenser , comprising an actuatable compartment coupled to the precursor inlet of the chamber; • a reducer , arranged within the chamber lumen ; • a processing shaft , intersecting the chamber lumen coaxially with the rotation axis , the processing shaft rotationally actuatable relative to the chamber lumen; • an agitator , coupled to the processing shaft and extending into the chamber lumen ; • a motor comprising a drive shaft , the drive shaft coupled to the processing shaft and the chamber and configured to rotate the processing shaft at a first angular velocity and the chamber at a second angular velocity during operation; • a temperature control system comprising a transfer surface , the transfer surface thermally connectable to the chamber ; and • a mold , defining a mold lumen, the mold circumferentially arranged about the chamber , a portion of the mold lumen intersecting the extraction plane.
A system comprising: (a) a plurality of sensors (1,2,...n), each comprising an acoustic sensor and electronics for digitizing an output of the acoustic sensor in accordance with a master clock that develops clock cycles; (b) a fiber further comprising a plurality of Fiber Bragg Gratings , i.e. FBGs, along its length, wherein each of said plurality of FBGs is operatively coupled to a corresponding sensor of the plurality of sensors (1,2,...n) and each FBG having a Bragg wavelength that is shifted slightly by stretching at a location of the fiber in the vicinity of the FBG ; (c) a plurality of piezoelectric actuators each associated with a corresponding FBG of the plurality of FBGs for straining the corresponding FBG according to a digitized output of the electronics of the sensor (1, 2, ...n) operatively coupled to the FBG ; and (d) a swept wavelength interrogator coupled to an end of the fiber for sending a plurality of wavelengths into the fiber and receiving reflected wavelengths from the plurality of FBGs in accordance with the master clock during a particular clock cycle and developing data bits representing the Bragg wavelengths of the plurality of FBGs during the particular clock cycle. (a) a plurality of sensors (1,2,...n), each comprising an acoustic sensor and electronics for digitizing an output of the acoustic sensor in accordance with a master clock that develops clock cycles; (b) a fiber further comprising a plurality of Fiber Bragg Gratings , i.e. FBGs, along its length, wherein each of said plurality of FBGs is operatively coupled to a corresponding sensor of the plurality of sensors (1,2,...n) and each FBG having a Bragg wavelength that is shifted slightly by stretching at a location of the fiber in the vicinity of the FBG ; (c) a plurality of piezoelectric actuators each associated with a corresponding FBG of the plurality of FBGs for straining the corresponding FBG according to a digitized output of the electronics of the sensor (1, 2, ...n) operatively coupled to the FBG ; and (d) a swept wavelength interrogator coupled to an end of the fiber for sending a plurality of wavelengths into the fiber and receiving reflected wavelengths from the plurality of FBGs in accordance with the master clock during a particular clock cycle and developing data bits representing the Bragg wavelengths of the plurality of FBGs during the particular clock cycle.