mhurhangee/ep-ind-claims huggingface dataset:
A method for handling random access in a radio communication system comprising: transmitting, by a network node, a random access response to a User Equipment, UE, performing a random access on a first cell or a second cell, wherein the random access reponse comprises a Radio Network Temporary Identifier, RNTI, which has a first value if the random access is associated with the first cell or a second value if the random access is associated with the second cell, wherein the first value is different than the second value and the first cell is different from the second cell, characterized in that: the first value or the second value is generated from the equation RNTI=1+t_id+10*f_id+(60*is_SCell), where t_id is an index of a first subframe of a specified Physical Random Access Control Channel, PRACH, such that 0≤t_id<10, f_id is an index of the specified PRACH within that subframe in ascending order of frequency domain such that 0≤f_id<6, and is_SCell is equal to zero when the UE is performing random access on the first cell being a primary cell, PCell, or one when the UE is performing random access on the second cell being a secondary cell, SCell, or the first value or the second value is generated from the equation RNTI=1+t_id+10*f_id+(60*is_PCell), where t_id is an index of a first subframe of a specified PRACH such that 0≤t_id<10, f_id is an index of the specified PRACH within that subframe in ascending order of frequency domain such that 0≤f_id<6, and is_PCell is equal to one when the UE is performing random access on the first cell being the PCell or zero when the UE is performing random access on the second cell being the SCell. the first value or the second value is generated from the equation RNTI=1+t_id+10*f_id+(60*is_SCell), where t_id is an index of a first subframe of a specified Physical Random Access Control Channel, PRACH, such that 0≤t_id<10, f_id is an index of the specified PRACH within that subframe in ascending order of frequency domain such that 0≤f_id<6, and is_SCell is equal to zero when the UE is performing random access on the first cell being a primary cell, PCell, or one when the UE is performing random access on the second cell being a secondary cell, SCell, or the first value or the second value is generated from the equation RNTI=1+t_id+10*f_id+(60*is_PCell), where t_id is an index of a first subframe of a specified PRACH such that 0≤t_id<10, f_id is an index of the specified PRACH within that subframe in ascending order of frequency domain such that 0≤f_id<6, and is_PCell is equal to one when the UE is performing random access on the first cell being the PCell or zero when the UE is performing random access on the second cell being the SCell.
Method for the production of electrical energy storage devices, said method comprising the steps of: - feeding a first separator and a second separator; - arranging a sequence of first electrodes (A1, A2) one after the other between said first and second separator (2; 3); - arranging a sequence of second electrodes one after the other on a side of the first separator opposite to the second separator, the second electrodes being superimposed over respective first electrodes with the interposition of the first separator, second electrodes not being arranged on some portions of the first separator overlapped to one or more first electrodes; - arranging a sequence of third electrodes one after the other on a side of the second separator opposite to the first separator, the third electrodes being superimposed over respective first electrodes with the interposition of the second separator, third electrodes not being arranged on some portions of the second separator superimposed to one or more first electrodes; the second electrodes being superimposed over first electrodes which in turn are superimposed over portions of the second separator on which third electrodes are not arranged, the third electrodes being superimposed over first electrodes which in turn are superimposed over portions of the first separator on which second electrodes are not arranged; said first and second separators (2; 3) comprising two continuous elements, said method comprising the step of separating discrete elements (K, J) from a product comprising said first, second and third electrodes (A1, A2, C1, C2) and said first and second separators (2; 3), each discrete element (K; J) comprising only one first electrode (A1, A2) between the separators (2; 3) and only one other electrode that consists of a second electrode or a third electrode. - feeding a first separator and a second separator; - arranging a sequence of first electrodes (A1, A2) one after the other between said first and second separator (2; 3); - arranging a sequence of second electrodes one after the other on a side of the first separator opposite to the second separator, the second electrodes being superimposed over respective first electrodes with the interposition of the first separator, second electrodes not being arranged on some portions of the first separator overlapped to one or more first electrodes; - arranging a sequence of third electrodes one after the other on a side of the second separator opposite to the first separator, the third electrodes being superimposed over respective first electrodes with the interposition of the second separator, third electrodes not being arranged on some portions of the second separator superimposed to one or more first electrodes;
A battery module comprising: a battery cell stack in which a plurality of battery cells are stacked; a module frame surrounding the battery cell stack; a busbar frame covering the front/rear surfaces of the battery cell stack exposed from the module frame; and an end plate covering the busbar frame, wherein the module frame includes a lower frame including a bottom part and two side parts extending upward in the z-direction from both ends of the bottom part and covering a lower part and both sides of the battery cell stack, and an upper plate covering an upper part of the battery cell stack, and at least one assemble guide part formed as at least one on the upper corner of the side part of the lower frame, wherein the assemble guide part includes a supporting part of a protrusion shape protruded in the z-axis direction and a depressed part formed on both sides of the supporting part; and wherein the upper plate comprises a groove part to which the supporting part of the assemble guide part is assembled. a battery cell stack in which a plurality of battery cells are stacked; a module frame surrounding the battery cell stack; a busbar frame covering the front/rear surfaces of the battery cell stack exposed from the module frame; and an end plate covering the busbar frame, wherein the module frame includes a lower frame including a bottom part and two side parts extending upward in the z-direction from both ends of the bottom part and covering a lower part and both sides of the battery cell stack, and an upper plate covering an upper part of the battery cell stack, and at least one assemble guide part formed as at least one on the upper corner of the side part of the lower frame, wherein the assemble guide part includes a supporting part of a protrusion shape protruded in the z-axis direction and a depressed part formed on both sides of the supporting part; and wherein the upper plate comprises a groove part to which the supporting part of the assemble guide part is assembled.
A suction unit, comprising a suction apparatus, a dirt collection container, a filter device, wherein the dirt collection container is in flow communication via the filter device to the suction apparatus, and a cleaning device for the filter device, characterized in that the cleaning device forms a noise source for noise emissions in a frequency range below 2000 Hz, and in that at least one perforated-plate resonator is associated with the cleaning device, wherein the at least one perforated-plate resonator has a chamber with a chamber space and with a chamber wall and has at least one perforated plate which covers the chamber space, and wherein the at least one perforated plate is operatively connected for sound communication to the cleaning device.
Three-dimensional printer for manufacturing a component by additive layers, which printer comprises: • a construction surface, • a feed means arranged to supply a powder flow to the construction surface and comprising a first feed pipe leading to the construction surface, • a means for transmitting an energy beam to the construction surface, • a movement means for generating a relative movement of the construction surface and the feed means, characterised in that said printer further comprises an electrostatic charge detector (7; 71, 72) arranged to measure a characteristic of an electrostatic charge of said powder flow. • a construction surface, • a feed means arranged to supply a powder flow to the construction surface and comprising a first feed pipe leading to the construction surface, • a means for transmitting an energy beam to the construction surface, • a movement means for generating a relative movement of the construction surface and the feed means, characterised in that said printer further comprises an electrostatic charge detector (7; 71, 72) arranged to measure a characteristic of an electrostatic charge of said powder flow.
Method for producing sealing tape rolls consisting of soft, compressed foam having at least one barrier layer which extends in the radial direction and which is arranged axially between two layers of the foam, comprising the following steps in the order specified: - providing a foam web consisting of a soft foam; - making at least one cut in the foam web in a longitudinal direction of the foam web to form foam strips which extend in parallel; - introducing a film strip, an adhesive tape strip and/or an adhesive-like liquid medium into each interspace between two adjacent foam strips that is created by the at least one cut, and - connecting all the foam strips to produce a foam-barrier layer web in which there alternate foam strips and at least one barrier layer which has resulted from the film strip, the adhesive tape strip and/or the adhesive-like liquid medium; characterized in that one of the following steps follows the above-specified steps: - (i) winding up the foam-barrier layer web to form a sealing tape roll, or - (ii) winding up the foam-barrier layer web to form an intermediate roll and severing the intermediate roll at one or more points in the axial direction in order to create a plurality of sealing tape rolls which are less wide than the intermediate roll, or - (iii) making at least one cut in the foam-barrier layer web in a longitudinal direction of the foam-barrier layer web to form foam-barrier layer strips and winding up the foam-barrier layer strips to form individual sealing tape rolls; and in that the connection of all the foam strips comprises the step of pressing the foam strips against one another. - providing a foam web consisting of a soft foam; - making at least one cut in the foam web in a longitudinal direction of the foam web to form foam strips which extend in parallel; - introducing a film strip, an adhesive tape strip and/or an adhesive-like liquid medium into each interspace between two adjacent foam strips that is created by the at least one cut, and - connecting all the foam strips to produce a foam-barrier layer web in which there alternate foam strips and at least one barrier layer which has resulted from the film strip, the adhesive tape strip and/or the adhesive-like liquid medium; - (i) winding up the foam-barrier layer web to form a sealing tape roll, or - (ii) winding up the foam-barrier layer web to form an intermediate roll and severing the intermediate roll at one or more points in the axial direction in order to create a plurality of sealing tape rolls which are less wide than the intermediate roll, or - (iii) making at least one cut in the foam-barrier layer web in a longitudinal direction of the foam-barrier layer web to form foam-barrier layer strips and winding up the foam-barrier layer strips to form individual sealing tape rolls;
A monoguide cutter having a cutting head with a self-adjusting device, wherein the cutting head is able to move along a monoguide profile and includes sets of bearings that comprise fixed bearings (31, 32) longitudinally aligned and separated in the direction of the movement of the cutting head and at least one adjustable bearing arranged between the fixed bearings (31, 32), the fixed bearings (31, 32) and the adjustable bearing acting on longitudinal races (11, 12) defined on the monoguide profile and arranged on different planes, wherein the cutting head comprises two of the sets of bearings on the inside thereof and on two opposite sides; each one of the two sets of bearings comprises a pair of the fixed bearings (31, 32) longitudinally aligned and separated in the direction of movement of the cutting head and an adjustable bearing arranged between the two fixed bearings (31, 32) on a plane that is perpendicular to the fixed bearings (31, 32); the fixed bearings (31, 32) of each set of bearings act on a first longitudinal race of the guide profile and the adjustable bearing of the same set of bearings acts on a second longitudinal race that is perpendicular to the first longitudinal race and is defined on the same side of the monoguide profile; and each adjustable bearing is mounted on a rocker which has a first end rotatably mounted on a shaft fixed to the cutting head, and a second end that presses against an elastic element situated between said second end of the rocker and a case of the cutting head, said elastic element determining a pressure of the bearings (31, 32, 33) against the longitudinal races (11, 12) of the monoguide profile. the cutting head comprises two of the sets of bearings on the inside thereof and on two opposite sides; each one of the two sets of bearings comprises a pair of the fixed bearings (31, 32) longitudinally aligned and separated in the direction of movement of the cutting head and an adjustable bearing arranged between the two fixed bearings (31, 32) on a plane that is perpendicular to the fixed bearings (31, 32); the fixed bearings (31, 32) of each set of bearings act on a first longitudinal race of the guide profile and the adjustable bearing of the same set of bearings acts on a second longitudinal race that is perpendicular to the first longitudinal race and is defined on the same side of the monoguide profile; and each adjustable bearing is mounted on a rocker which has a first end rotatably mounted on a shaft fixed to the cutting head, and a second end that presses against an elastic element situated between said second end of the rocker and a case of the cutting head, said elastic element determining a pressure of the bearings (31, 32, 33) against the longitudinal races (11, 12) of the monoguide profile.
A method of generating data streams in a wireless multiple-input multiple output, MIMO, communication system having a plurality of users, comprising: obtaining at least one data stream (X 1...X K) for each user of the plurality of users; obtaining an orthogonal sequence (W 1...W K) for each user in the plurality of users; scaling the at least one data stream (X 1...X K) for each user with a respective scaling factor (G 1...G K) to provide power adjustment for the at least one data stream (X 1...X K); and multiplying the at least scaled one data stream (X 1...X K) for each user with the orthogonal sequence (W 1...W K) for the user to obtain at least one multiplied data stream for each of the plurality of users; combining the at least one multiplied data stream for each of the plurality of users to generate one combined data stream; and interleaving the data in the combined data stream to provide temporal diversity. obtaining at least one data stream (X 1...X K) for each user of the plurality of users; obtaining an orthogonal sequence (W 1...W K) for each user in the plurality of users; scaling the at least one data stream (X 1...X K) for each user with a respective scaling factor (G 1...G K) to provide power adjustment for the at least one data stream (X 1...X K); and multiplying the at least scaled one data stream (X 1...X K) for each user with the orthogonal sequence (W 1...W K) for the user to obtain at least one multiplied data stream for each of the plurality of users; combining the at least one multiplied data stream for each of the plurality of users to generate one combined data stream; and interleaving the data in the combined data stream to provide temporal diversity.
A door suitable for using in ovens, comprising - an outer panel, - two opposite profiles which are located on the inner surface of the outer panel and extend parallel to each other almost along the outer panel at the portions close to the lateral sides of the outer panel, - an inner panel which is disposed between the profiles and faces the inner volume of the oven, - at least one intermediate panel located between the inner panel and the outer panel, - two support members that are mounted to the upper end of each profile and enable the inner panel and the intermediate panel to be aligned while being mounted onto the outer panel, and that have a first step against which the intermediate panel bears and a second step against which the inner panel bears, characterized by - a bearing which extends between the lower ends of the profiles and whereon the lower sides of the inner panel and the intermediate panel are disposed, - a sheath which is mounted onto the profiles and covers the gap between the inner panel upper side and the outer panel by extending longitudinally between the profiles, - one resilient locking element located on each of the upper surface of the support members, and two pins which are located on the lower surface of the sheath and enable the sheath to be mounted onto the profiles by being disposed into the locking elements, - the rectangular panels (2, 4, 5), an indent which is located at one corner of the inner panel and/or the intermediate panel, and a bracket which is located on one of the support members and has the same shape as the indent. - an outer panel, - two opposite profiles which are located on the inner surface of the outer panel and extend parallel to each other almost along the outer panel at the portions close to the lateral sides of the outer panel, - an inner panel which is disposed between the profiles and faces the inner volume of the oven, - at least one intermediate panel located between the inner panel and the outer panel, - two support members that are mounted to the upper end of each profile and enable the inner panel and the intermediate panel to be aligned while being mounted onto the outer panel, and that have a first step against which the intermediate panel bears and a second step against which the inner panel bears, - a bearing which extends between the lower ends of the profiles and whereon the lower sides of the inner panel and the intermediate panel are disposed, - a sheath which is mounted onto the profiles and covers the gap between the inner panel upper side and the outer panel by extending longitudinally between the profiles, - one resilient locking element located on each of the upper surface of the support members, and two pins which are located on the lower surface of the sheath and enable the sheath to be mounted onto the profiles by being disposed into the locking elements, - the rectangular panels (2, 4, 5), an indent which is located at one corner of the inner panel and/or the intermediate panel, and a bracket which is located on one of the support members and has the same shape as the indent.
A method for producing ether phospholipids derived from bivalve tissues comprising: a step of processing total lipids of bivalve tissues with water-soluble ketone solvent to get bivalve phospholipids without neutral fat; a step of providing extraction processing from the bivalve phospholipids without neutral fat obtained by the step with a hydrophobic organic solvent to get a glycerophospholipid; and a step of reacting the glycerophospholipids obtained by the step with phospholipase A1 to decompose mixed diacyl-glycerophospholipids, followed by solution partitioning etc. to get a purified ether phospholipid. a step of processing total lipids of bivalve tissues with water-soluble ketone solvent to get bivalve phospholipids without neutral fat; a step of providing extraction processing from the bivalve phospholipids without neutral fat obtained by the step with a hydrophobic organic solvent to get a glycerophospholipid; and a step of reacting the glycerophospholipids obtained by the step with phospholipase A1 to decompose mixed diacyl-glycerophospholipids, followed by solution partitioning etc. to get a purified ether phospholipid.
Method for locating at least one movable magnetic object (OMM k) with respect to an array of at least N triaxial magnetometers (M i,j) that are mechanically connected to one another with no degree of freedom in order to preserve a known relative position of these magnetometers (M i,j), N being an integer at least equal to 2, comprising steps consisting in: - loading the measurements (B i,j mes) of the magnetometers (M i,j), at a current time (t); - calculating a weighted average (<B mes >) of said measurements (B i,j mes) of the magnetometers (M i,j) representing an average terrestrial magnetic field and an average magnetic field due to the movable magnetic object(s) (OMM k); - subtracting said weighted average (<B mes >) from each of said measurements (B i,j mes) in order to obtain modified measurements (B i,j mes -<B mes >); - loading said modified measurements (B i,j mes -<B mes >) and a location (Post, M t) of the one or more movable magnetic objects (OMM k) at the current time (t) as input into a filtering operation for locating the one or more movable magnetic objects (OMM k); - implementing the location filtering operation, this comprising steps consisting in: - calculating a weighted average (<B est >) of estimations (B i,j est) of data delivered by said magnetometers (Mi); - subtracting said weighted average (<B est >) from each of said estimated data (B i,j est); and - delivering as output a location (Pos t+1, M t +1) of the one or more movable magnetic objects (OMM k) at a subsequent time (t+1). - loading the measurements (B i,j mes) of the magnetometers (M i,j), at a current time (t); - calculating a weighted average (<B mes >) of said measurements (B i,j mes) of the magnetometers (M i,j) representing an average terrestrial magnetic field and an average magnetic field due to the movable magnetic object(s) (OMM k); - subtracting said weighted average (<B mes >) from each of said measurements (B i,j mes) in order to obtain modified measurements (B i,j mes -<B mes >); - loading said modified measurements (B i,j mes -<B mes >) and a location (Post, M t) of the one or more movable magnetic objects (OMM k) at the current time (t) as input into a filtering operation for locating the one or more movable magnetic objects (OMM k); - implementing the location filtering operation, this comprising steps consisting in: - calculating a weighted average (<B est >) of estimations (B i,j est) of data delivered by said magnetometers (Mi); - subtracting said weighted average (<B est >) from each of said estimated data (B i,j est); and - delivering as output a location (Pos t+1, M t +1) of the one or more movable magnetic objects (OMM k) at a subsequent time (t+1). - calculating a weighted average (<B est >) of estimations (B i,j est) of data delivered by said magnetometers (Mi); - subtracting said weighted average (<B est >) from each of said estimated data (B i,j est); and - delivering as output a location (Pos t+1, M t +1) of the one or more movable magnetic objects (OMM k) at a subsequent time (t+1).