mhurhangee/ep-ind-claims huggingface dataset:
An information processing method, comprising: obtaining a current modulation and coding scheme, MCS, based on a current channel status; determine, based on the obtained MCS, an encoding code rate of a transport block; and if a first code rate R real is greater than or equal to a second code rate R min, determining, based on a maximum code block length K max of an LDPC code, a quantity C of code blocks into which the transport block is to be segmented, wherein the first code rate R real is a largest one among the encoding code rate of the transport block, a code rate limit of the transport block, and a minimum code rate supported by the LDPC code, R min,K, wherein the code rate limit of the transport block is (TBS + L TB,CRC)/ N IR, TBS is a length of the transport block, L TB,CRC is a length of cyclic redundancy check, CRC, bits of the transport block, and N IR is a size of a buffer used by the receive end to store soft information of the transport block, and the second code rate R min is a minimum code rate corresponding to the maximum code block length of the LDPC code, or a larger one between a minimum code rate corresponding to the maximum code block length of the LDPC code and a code rate limit of the maximum code block length of the LDPC code, wherein the code rate limit of the maximum code block length of the LDPC code is K max / N CB,limit, and N CB, limit is a size of a buffer used by a receive end to store soft information of the code block. obtaining a current modulation and coding scheme, MCS, based on a current channel status; determine, based on the obtained MCS, an encoding code rate of a transport block; and if a first code rate R real is greater than or equal to a second code rate R min, determining, based on a maximum code block length K max of an LDPC code, a quantity C of code blocks into which the transport block is to be segmented, wherein the first code rate R real is a largest one among the encoding code rate of the transport block, a code rate limit of the transport block, and a minimum code rate supported by the LDPC code, R min,K, wherein the code rate limit of the transport block is (TBS + L TB,CRC)/ N IR, TBS is a length of the transport block, L TB,CRC is a length of cyclic redundancy check, CRC, bits of the transport block, and N IR is a size of a buffer used by the receive end to store soft information of the transport block, and the second code rate R min is a minimum code rate corresponding to the maximum code block length of the LDPC code, or a larger one between a minimum code rate corresponding to the maximum code block length of the LDPC code and a code rate limit of the maximum code block length of the LDPC code, wherein the code rate limit of the maximum code block length of the LDPC code is K max / N CB,limit, and N CB, limit is a size of a buffer used by a receive end to store soft information of the code block.
Bioreactor for degradation of harmful substances in waste waters with a tank formed from a bottom and side walls, which are arranged at least partially inclined with respect to the force of gravity, wherein the bioreactor comprises a carrying device with a plurality of corrugated sheets arranged in parallel planes, wherein the waves and the valleys of adjacent corrugated sheets are not parallel to each other, the carrying device can be flown through by waste water and can be inoculated with at least one microorganism, characterized in that underneath the carrying device at least one air outlet is arranged and a rack carries the carrying device as well as the at least one air outlet, wherein the waves and the valleys of adjacent corrugated sheets are arranged turned relative to each other at an angle of 45°.
A turbine for the expansion of a compressible operating fluid, for example gas or steam, comprising a plurality of stages (4, 5) defined by arrays of stator blades (41, 51) and arrays of rotor blades (42, 52), and a supporting shaft to support the arrays of rotor blades (42, 52), wherein the shaft has a longitudinal rotation axis X-X and is, in its turn, supported by at least two bearings, and wherein at least one group of stages, named centrifugal stages, extends in a radial direction with respect to the axis X-X to carry out a centrifugal expansion of the operating fluid, wherein it comprises a group of stages, named centripetal stages, extending in a radial direction with respect to the axis X-X to carry out the initial expansion of the operating fluid in the centripetal direction, characterized in that all the arrays of rotor blades (42, 52) are constrained to the shaft at an end thereof, anyway not in the area between the bearings.
A spectrometry device, comprising: a first converter configured to process a reception signal based on an irradiation light from a first emitter; a second converter configured to process a reception signal based on an irradiation light from a second emitter; a controller configured to control the first emitter and the second emitter, a first switch; and an additional switch; wherein the reception signal based on the irradiation light irradiated from the first emitter includes a first reception signal and a second reception signal that each include information that relates to an optical spectrum, when the controller starts the operation of the first and second emitters (11, 12), the first switch is configured to switch a circuit that causes the first converter to alternately convert the first reception signal and the second reception signal into a first and a second digital signal, respectively, while the second converter is configured to process the reception signal based on an irradiation light from the second emitter into a digital signal, and when the controller stops the operation of the second emitter while maintaining operation of the first emitter, the first converter is configured to convert the first reception signal into a first digital signal and the additional switch is configured to switch a circuit that causes the second converter to convert the second reception signal into a second digital signal, and wherein the first and second converters (51, 52) are two different analog to digital converters. a first converter configured to process a reception signal based on an irradiation light from a first emitter; a second converter configured to process a reception signal based on an irradiation light from a second emitter; a controller configured to control the first emitter and the second emitter, a first switch; and an additional switch; wherein the reception signal based on the irradiation light irradiated from the first emitter includes a first reception signal and a second reception signal that each include information that relates to an optical spectrum, when the controller starts the operation of the first and second emitters (11, 12), the first switch is configured to switch a circuit that causes the first converter to alternately convert the first reception signal and the second reception signal into a first and a second digital signal, respectively, while the second converter is configured to process the reception signal based on an irradiation light from the second emitter into a digital signal, and when the controller stops the operation of the second emitter while maintaining operation of the first emitter, the first converter is configured to convert the first reception signal into a first digital signal and the additional switch is configured to switch a circuit that causes the second converter to convert the second reception signal into a second digital signal, and wherein the first and second converters (51, 52) are two different analog to digital converters.
Vertebral osteosynthesis equipment comprising at least one anchoring assembly including a hook integral with a body, this body being passed through by a hole, and connection means making it possible to connect the anchoring assembly to a connection bar for connecting a series of vertebrae; the anchoring assembly comprises a continuous flexible ligament able to be engaged in said hole and to form a loop allowing the engagement of the ligament around a structure of a vertebrae or mounted on a vertebrae, and comprises stop means (12, 16; 30) making it possible to immobilize this ligament in relation to said body; characterized in that - the stop means comprise: - an opening arranged in said body substantially perpendicular to the axis of said hole, communicating with this hole, and - a tightening member able to be engaged in this opening until it bears against the ligament and able to be tightened in order to immobilize the ligament in the hole; - the tightening member is connected directly to said connection means, whose assembly on the body of the hook it enables; - said connection means comprises a part for assembling the hook to said connection bar, which is articulated in relation to the body of the hook, and said tightening member is formed by a connecting piece independent of said part, connected by articulation thereto. - the stop means comprise: - an opening arranged in said body substantially perpendicular to the axis of said hole, communicating with this hole, and - a tightening member able to be engaged in this opening until it bears against the ligament and able to be tightened in order to immobilize the ligament in the hole; - an opening arranged in said body substantially perpendicular to the axis of said hole, communicating with this hole, and - a tightening member able to be engaged in this opening until it bears against the ligament and able to be tightened in order to immobilize the ligament in the hole; - the tightening member is connected directly to said connection means, whose assembly on the body of the hook it enables; - said connection means comprises a part for assembling the hook to said connection bar, which is articulated in relation to the body of the hook, and said tightening member is formed by a connecting piece independent of said part, connected by articulation thereto.
A zinc finger nuclease pair comprising a left ZFN and a right ZFN, each ZFN comprising a wild-type or engineered cleavage domain or cleavage half domain and five or six zinc finger domains designated and ordered F1 to F5 or F1 to F6, F1 to F5 or F1 to F6 comprising the recognition helix regions as follows: (i) F1 to F5 comprising SEQ ID NOs: 109, 104, 110, 106 & 107, respectively (SBS#47171); (ii) F1 to F6 comprising SEQ ID NOs: 14, 114, 111, 15, 16 & 12, respectively (SBS#47898); (iii) F1 to F6 comprising SEQ ID NOs: 14, 9, 10, 15, 16 & 12, respectively (SBS#47079 or SBS#47169); (iv) F1 to F6 comprising SEQ ID NOs: 14, 9, 111, 15, 16 & 12, respectively (SBS#4 7931); (v) F1 to F5 comprising SEQ ID NOs: 2, 112, 110, 106 & 113, respectively (SBS#47863); (vi) F1 to F5 comprising SEQ ID NOs: 2, 112, 110, 106 & 107, respectively (SBS#47192); wherein the left ZFN comprises the zinc finger recognition helix regions selected from the (i), (v), and (vi), and the right ZFN comprises the zinc finger recognition helix regions selected from the (ii), (iii), and (iv). (i) F1 to F5 comprising SEQ ID NOs: 109, 104, 110, 106 & 107, respectively (SBS#47171); (ii) F1 to F6 comprising SEQ ID NOs: 14, 114, 111, 15, 16 & 12, respectively (SBS#47898); (iii) F1 to F6 comprising SEQ ID NOs: 14, 9, 10, 15, 16 & 12, respectively (SBS#47079 or SBS#47169); (iv) F1 to F6 comprising SEQ ID NOs: 14, 9, 111, 15, 16 & 12, respectively (SBS#4 7931); (v) F1 to F5 comprising SEQ ID NOs: 2, 112, 110, 106 & 113, respectively (SBS#47863); (vi) F1 to F5 comprising SEQ ID NOs: 2, 112, 110, 106 & 107, respectively (SBS#47192);
Hand lever preferably made of plastic, for operating a valve, preferably a shut-off valve or a ball valve, containing a lever and a locking plate, wherein the lever comprises a locking element and a lever upper part, wherein a fastening element for fastening to the valve and for connecting to the locking plate is arranged on the lever upper part, and the locking plate has a receiving opening for receiving the fastening element, characterized in that the receiving opening is oval and the fastening element has a round cross-sectional surface or the fastening element has an oval cross-sectional surface and the receiving opening is round, wherein the oval or round contour of the receiving opening has at least one recess or cutout, wherein the fastening element 2 is cylindrical, wherein at least one cam for engaging with the locking plate is arranged on the fastening element.
Holding frame for a connector for receiving pneumatic modules (2, 3), comprising two holding frame parts, wherein - each of said holding frame parts in each case has a side part (11, 11') in which a plurality of windows (12, 12') are arranged, - each of said holding frame parts, at two mutually opposite ends of a side part (11, 11'), in each case has an end region (13, 13') bent at right angles, and wherein - each of said bent end regions (13, 13') has, at its end, a contact region (14, 14') with an associated contact surface for fitting on and mechanically fastening to the contact region (14', 14) of the other holding frame part in each case, characterized in that the holding frame parts are manufactured from sheet metal, and therefore the two holding frame parts are two sheet-metal parts (1, 1'), wherein each contact region (14, 14') is bent at right angles with its contact surface with respect to its respective end region (13, 13') and has a screw hole or a screw eye, wherein the contact regions (14, 14') can be pressed against each other at their contact surfaces by means of a screw connection, wherein, for the screw connection, a screw is guided through a screw eye (14, 14') of the contact region (14, 14') of the one sheet-metal part (1, 1') and screwed into the screw hole (14, 14') of the contact region (14', 14) of the other sheet-metal part (1', 1). - each of said holding frame parts in each case has a side part (11, 11') in which a plurality of windows (12, 12') are arranged, - each of said holding frame parts, at two mutually opposite ends of a side part (11, 11'), in each case has an end region (13, 13') bent at right angles, and wherein - each of said bent end regions (13, 13') has, at its end, a contact region (14, 14') with an associated contact surface for fitting on and mechanically fastening to the contact region (14', 14) of the other holding frame part in each case,
A compression-ignition direct-injection internal-combustion engine comprising at least a cylinder, a cylinder head carrying fuel injection means, a piston sliding in this cylinder, a combustion chamber delimited on one side by the upper face of the piston comprising a pip extending in the direction of the cylinder head and arranged at the centre of a concave bowl, said injection means projecting fuel in at least two fuel jet sheets with different sheet angles (A1, A2), a lower sheet of jet axis C1 and an upper sheet of jet axis C2, at least two separate mixing zones (Z1, Z2) of the combustion chamber, one of the zones comprising a toroidal volume of centre B into which fuel jets of the lower sheet are injected in such a way that the axis C1 of the lower sheet jets is situated between the centre B and the pip, characterized in that the first zone associated with the said lower sheet of jet axis C1 is delimited by the pip, the said toroidal volume, a lateral wall and a convex rounded surface, and in that the second zone associated with the said upper sheet of jet axis C2 is demarcated by an inclined plane, a convex surface, a substantially planar surface, a convex surface, a planar surface and the peripheral internal wall of the cylinder and the said cylinder head.
A fuel composition, comprising: a normally liquid fuel; and from 0.0001 to 70 wt% of (i) a metathesized natural oil; (ii) a metathesized natural oil derivative; or (iii) a mixture of (i) and (ii) for lowering the cloud point, pour point and/or cold filter plugging point of the normally liquid fuel; with the proviso that the metathesized natural oil comprises a metathesis oligomer or a metathesis polymer. a normally liquid fuel; and from 0.0001 to 70 wt% of (i) a metathesized natural oil; (ii) a metathesized natural oil derivative; or (iii) a mixture of (i) and (ii) for lowering the cloud point, pour point and/or cold filter plugging point of the normally liquid fuel;
A method of wireless communication, comprising: determining a subset of subchannels for a first cell, the subset of subchannels configured based on a pattern to reduce interference at least from a first user equipment, UE, in the first cell to at least a second UE in a second cell, the first UE being in device to device, D2D, communication with a third UE in the first cell; determining whether the first UE in the first cell is interfering with the second UE in the second cell based at least on a message received at the first cell indicating that the second UE has detected a reference signal from the first UE, wherein the message is received from at least one of the first UE or the second cell in response to the first cell sending an instruction to the first UE to send the reference signal to the second UE; and allocating at least one subchannel to the first UE from the subset of subchannels when the first UE in the first cell is interfering with the second UE in the second cell, and wherein the at least one subchannel is allocated to the first UE for device-to-device, D2D, communications between the first UE and the third UE in the first cell, wherein; the first UE is a transmitter in a device-to-device pair in the first cell and the at least one subchannel is for D2D communications, and; receiving a report from the third UE in the first cell, the third UE being a receiver in the D2D pair, wherein the report comprises channel quality information for one or more of the subchannels and wherein the allocation is based on the report. determining a subset of subchannels for a first cell, the subset of subchannels configured based on a pattern to reduce interference at least from a first user equipment, UE, in the first cell to at least a second UE in a second cell, the first UE being in device to device, D2D, communication with a third UE in the first cell; determining whether the first UE in the first cell is interfering with the second UE in the second cell based at least on a message received at the first cell indicating that the second UE has detected a reference signal from the first UE, wherein the message is received from at least one of the first UE or the second cell in response to the first cell sending an instruction to the first UE to send the reference signal to the second UE; and allocating at least one subchannel to the first UE from the subset of subchannels when the first UE in the first cell is interfering with the second UE in the second cell, and wherein the at least one subchannel is allocated to the first UE for device-to-device, D2D, communications between the first UE and the third UE in the first cell, wherein; the first UE is a transmitter in a device-to-device pair in the first cell and the at least one subchannel is for D2D communications, and; receiving a report from the third UE in the first cell, the third UE being a receiver in the D2D pair, wherein the report comprises channel quality information for one or more of the subchannels and wherein the allocation is based on the report.
A surface active protein for use in treating a fungal disease, inflammation, cancer, infection or degeneration, wherein the surface active protein is to be admixed to a pharmaceutical formulation comprising one or more active ingredients and, optionally, one or more pharmaceutically acceptable carriers and/or ingredients, wherein the surface active protein is a penetration enhancer for the transungual delivery of a prophylactically or therapeutically effective amount of at least one active ingredient into and/or through a nail to a diseased or infected nail bed, nail matrix, and/or nail plate in the toenails and/or fingernails of an animal or human patient and wherein the surface active protein is selected from the class of hydrophobins.
A method for cleaning a surface of skin of a patient which removes at least 95% of any PSA protein from the surface of the skin after the first and second wiping steps compared to an amount of PSA protein present on the surface of the skin before the first and second wiping steps, as determined by a tPSA assay, comprising: wiping the surface of the skin with a first wipe, wherein the first wipe comprises a solution comprising a surfactant, and wherein the surfactant is present in the solution in an amount of between 0.1 wt% and 15 wt% of the solution; wiping at least a portion of the surface of the skin with a second wipe, wherein the second wipe comprises an antiseptic solution, and wherein the first and second wipes are different, and wherein the step of wiping at least a portion of the surface of the skin with the second wipe occurs after less than or equal to 60 seconds of contacting the surface of the skin with the first wipe; forming a first blood droplet on the surface of the skin after the step of wiping at least a portion of the surface of the skin with the second wipe; wiping away the first droplet with the first wipe, the second wipe, or a third wipe; and forming a second blood droplet on the surface of the skin after the step of wiping away the first blood droplet. wiping the surface of the skin with a first wipe, wherein the first wipe comprises a solution comprising a surfactant, and wherein the surfactant is present in the solution in an amount of between 0.1 wt% and 15 wt% of the solution; wiping at least a portion of the surface of the skin with a second wipe, wherein the second wipe comprises an antiseptic solution, and wherein the first and second wipes are different, and wherein the step of wiping at least a portion of the surface of the skin with the second wipe occurs after less than or equal to 60 seconds of contacting the surface of the skin with the first wipe; forming a first blood droplet on the surface of the skin after the step of wiping at least a portion of the surface of the skin with the second wipe; wiping away the first droplet with the first wipe, the second wipe, or a third wipe; and forming a second blood droplet on the surface of the skin after the step of wiping away the first blood droplet.
A gripping head for gripping bottles (F1, F2), closable in particular by means of a closure and having a pot-shaped housing and a pot-shaped elastically deformable gripping insert, the gripping insert having a rear base and a front end facing the top of the bottle, which is to be gripped, the gripping insert being supported on a step, which is fixed to the housing, by means of a radially outwardly facing collar which is arranged at the front end of the gripping insert, and the gripping head having means for introducing a pressure medium into a pressure volume arranged between the inner wall of the housing and the outer wall of the gripping insert, characterized in that the wall of the sleeve-shaped gripping insert, arranged between the ends (11, 12), comprises a plurality of external webs distributed over the circumference of the gripping insert and extending in the axial direction, wherein the axial webs alternate with weakened regions over the circumference of the gripping insert, wherein the axial webs are radially set back compared to the collar such that a continuous annular volume is formed between the inner wall of the housing and the outer wall of the gripping insert, wherein the rear base of the gripping insert is formed in an axially movable manner with respect to the base of the pot-shaped housing.