mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a base station for transmitting data, the method comprising: transmitting, to a terminal, a transport block including a plurality of code blocks, the plurality of code blocks being included in a plurality of code block groups; receiving, from the terminal, a negative acknowledgement, NACK, corresponding to the first transport block; generating an indicator associated with a hybrid automatic repeat request, HARQ, combining at the terminal, wherein the generating of the indicator comprises determining that at least one code block group mapped to resources in which first type data and second type data overlap with each other is not combinable; transmitting, to the terminal, downlink control information, DCI, associated with a second transport block which corresponds to a retransmission of the first transport block, the DCI including the indicator; and transmitting, to the terminal, the second transport block, wherein each bit of the indicator indicates whether a code block group in the second transport block is combinable with the same code block group in the first transport block or not, and wherein a number of bits of the indicator is M and a number of a plurality of code blocks is N, each of the first M-1 bits of the indicator corresponds to ┌ N / M ┐ code blocks and a last M-th bit corresponds to N-(M-1) ┌ N / M ┐ code blocks, where N > M and M > 1. transmitting, to a terminal, a transport block including a plurality of code blocks, the plurality of code blocks being included in a plurality of code block groups; receiving, from the terminal, a negative acknowledgement, NACK, corresponding to the first transport block; generating an indicator associated with a hybrid automatic repeat request, HARQ, combining at the terminal, wherein the generating of the indicator comprises determining that at least one code block group mapped to resources in which first type data and second type data overlap with each other is not combinable; transmitting, to the terminal, downlink control information, DCI, associated with a second transport block which corresponds to a retransmission of the first transport block, the DCI including the indicator; and transmitting, to the terminal, the second transport block, wherein each bit of the indicator indicates whether a code block group in the second transport block is combinable with the same code block group in the first transport block or not, and wherein a number of bits of the indicator is M and a number of a plurality of code blocks is N, each of the first M-1 bits of the indicator corresponds to ┌ N / M ┐ code blocks and a last M-th bit corresponds to N-(M-1) ┌ N / M ┐ code blocks, where N > M and M > 1.
A leak detector comprising a gas sensor in fluid communication with one or more probe head ports of a probe head having a first communication direction for the gas sensor, characterised in that the leak detector further comprises a purge gas supply in fluid communication with the one or more probe head ports of the probe head in a second communication direction for the purge gas supply, which communication directions (76,78) are opposite to each other, wherein the gas sensor and the purge gas supply are configured for communication through a common conduit for the fluid communication with the one or more probe head ports of the probe head and wherein only one of the gas sensor or the purge gas supply is in fluid communication through the common conduit with the one or more probe head ports of the probe head at a time.
A flavor inhaler comprising: a flavor source configured to generate flavor without combusting; a cylindrical holding member including at least the flavor source inside; and a flow path (36, 38) that is provided in the cylindrical holding member and that is extending from the flavor source toward a suction port for sucking the flavor; wherein the suction port comprises a filter; and wherein the cylindrical holding member has one or more holes arranged such that external air flows into the flow path (36, 38) without passing the flavor source, characterized by a cooling layer provided only downstream of the flavor source, wherein the cooling layer is provided on an inner surface of the cylindrical holding member, and faces the flow path (36, 38), and wherein inside of the cooling layer is hollow. a flavor source configured to generate flavor without combusting; a cylindrical holding member including at least the flavor source inside; and a flow path (36, 38) that is provided in the cylindrical holding member and that is extending from the flavor source toward a suction port for sucking the flavor; wherein the suction port comprises a filter; and wherein the cylindrical holding member has one or more holes arranged such that external air flows into the flow path (36, 38) without passing the flavor source, characterized by a cooling layer provided only downstream of the flavor source, wherein the cooling layer is provided on an inner surface of the cylindrical holding member, and faces the flow path (36, 38), and wherein inside of the cooling layer is hollow.
A chiller refrigeration system, comprising: an interface between first flange and a second flange where the pressure of a refrigerant within the chiller refrigeration system is lower than the ambient air pressure; and a seal wherein the second flange is coaxially aligned and directly in contact with the first flange, the second flange includes at least one groove (82; 84; 85) within which a first sealing mechanism is positioned, characterised in that in the at least one groove a second sealing mechanism is positioned, the first sealing mechanism and the second sealing mechanism being separated by a distance such that a chamber configured to receive a pressurized gas is formed between the first sealing mechanism and the second sealing mechanism. an interface between first flange and a second flange where the pressure of a refrigerant within the chiller refrigeration system is lower than the ambient air pressure; and a seal wherein the second flange is coaxially aligned and directly in contact with the first flange, the second flange includes at least one groove (82; 84; 85) within which a first sealing mechanism is positioned, characterised in that in the at least one groove a second sealing mechanism is positioned, the first sealing mechanism and the second sealing mechanism being separated by a distance such that a chamber configured to receive a pressurized gas is formed between the first sealing mechanism and the second sealing mechanism.
A device for processing a substrate comprising at least one unit (01; 02; 03; 04) for applying an ink and/or a coating material on the substrate and comprising a conveyor system, having a load bearer, which moves the substrate in a feed direction relative to the at least one unit (01; 02; 03; 04) for applying the ink and/or coating material on the substrate, wherein the load bearer is formed by a plate or of several rods strung together in the feed direction of the substrate and each extending transversely in relation to the feed direction, characterized in that several grooves are formed next to one another along the feed direction of the substrate on the surface of the load bearer provided for bearing the substrate, wherein sliding rods, each engaging in one of said grooves, are arranged at least at one of the ends of the conveyor system.
An adapter device comprising a first mount on one side and a second mount on another side, the first mount being configured to detachably attach to a first imaging apparatus, and the second mount being configured to detachably attach to a first accessory, wherein the first mount has a first mount recess, a first mount claw portion, a second mount recess, a second mount claw portion, a third mount recess, and a third mount claw portion, disposed following a circumferential direction of the first mount, wherein the second mount has a fourth mount claw portion, a fourth mount recess, a fifth mount claw portion, a fifth mount recess, a sixth mount claw portion, and a sixth mount recess, disposed following a circumferential direction of the second mount, wherein the first, second, and third mount claw portions (1501d, 1501e, 1501f) are insertable into corresponding mount recesses provided to the first imaging apparatus, wherein the fourth, fifth, and sixth mount claw portions (1201a, 1201b, 1201c) are insertable into mount recesses provided to the first accessory, and wherein a largest angle range out of angle ranges of the fourth, fifth, and sixth mount claw portions in the circumferential direction of the second mount is greater than a largest angle range out of angle ranges of the first, second, and third mount recesses (1501b or 1501c) in the circumferential direction of the first mount. wherein the first mount has a first mount recess, a first mount claw portion, a second mount recess, a second mount claw portion, a third mount recess, and a third mount claw portion, disposed following a circumferential direction of the first mount, wherein the second mount has a fourth mount claw portion, a fourth mount recess, a fifth mount claw portion, a fifth mount recess, a sixth mount claw portion, and a sixth mount recess, disposed following a circumferential direction of the second mount, wherein the first, second, and third mount claw portions (1501d, 1501e, 1501f) are insertable into corresponding mount recesses provided to the first imaging apparatus, wherein the fourth, fifth, and sixth mount claw portions (1201a, 1201b, 1201c) are insertable into mount recesses provided to the first accessory, and wherein a largest angle range out of angle ranges of the fourth, fifth, and sixth mount claw portions in the circumferential direction of the second mount is greater than a largest angle range out of angle ranges of the first, second, and third mount recesses (1501b or 1501c) in the circumferential direction of the first mount.
Wax-based coloring crayon for porous and non-porous surfaces, the crayon comprising: a- at least one wax, b- an ethoxylated fatty alcohol, c- stearin, d- a filler, e- at least one pigment and f- optionally an additive. a- at least one wax, b- an ethoxylated fatty alcohol, c- stearin, d- a filler, e- at least one pigment and f- optionally an additive.
Process for the purification of waste gas containing thermally purifiable compounds oxidizable with the oxygen in the waste gas as well as nitrogen oxides and/or compounds forming nitrogen oxides during the thermal purification in a post-combustion system having at least two regenerators (A, B....) filled with heat-accumulator bodies and connected to a common combustion chamber, wherein the waste gas is alternately supplied to a raw gas inlet regenerator (A or B), the heat-accumulator bodies of which have been preheated, and the thermally purified waste gas emerging from the combustion chamber is supplied to a clean gas outlet regenerator (B or A) for the heating of its heat-accumulator bodies and the selective catalytic reduction of the nitrogen oxides to nitrogen by means of a reducing agent, characterized in that the at least two regenerators (A, B...) are each divided into two parts in the direction of flow, namely into one regenerator section (A', B') facing away from the combustion chamber and one regenerator section (A", B") facing the combustion chamber and that the at least two regenerators (A, B...) have a common catalyst for the selective catalytic reduction, wherein, after cooling in the section (A", B") of the clean gas outlet regenerator (A, B...) adjacent to the combustion chamber to the temperature required for the selective catalytic reduction, and mixing with the reducing agent, the waste gas thermally purified in the combustion chamber is supplied to the common catalyst for forming clean gas, which is directed to the outside after it has conveyed heat to the heat-accumulator bodies of the section (A', B') of the clean gas outlet regenerator (A, B...) facing away from the combustion chamber.
A windlass assembly for a marine craft anchoring system, the assembly comprising, before attachment to the craft, a windlass portion and a bow roller portion connected to each other via a connection portion, the connection portion being capable of providing a mechanical link between the windlass portion and the bow roller portion, capable of securing alignment between the windlass portion and the bow roller portion and capable of fixing the spacing between the windlass portion and the bow roller portion the connection portion defines a channel for anchor rode to extend between the windlass portion and the bow roller portion, characterized in that there further being provided a cover on the connection portion, so as to prevent, in use of the windlass assembly on the marine craft, inadvertent contact between a person on board the marine craft and anchor rode moving in the channel.
A crystalline form of Afatinib dimaleate designated as Form Alpha, characterized by: an X-ray powder diffraction pattern having peaks at 6.6, 10.6, 15.3, 16.3 and 24.2 degrees two theta ± 0.2 degrees two theta (Cu irradiation source with λ = 1.54184 Å).
A lighting apparatus for a camera system comprising: - an array of light sources, wherein the array of light sources is an array of vertical-cavity surface-emitting lasers, the light sources emitting emission cones, wherein the array of light sources is adapted such that the edges of the emission cones intersect in an intersection plane (8; 9), - an emission lens unit for homogenizing the intensity distribution in the far field, wherein the array of the light sources and the emission lens unit are arranged such that i) the emission cones traverse the emission lens unit and ii) the distance ( s) between the array of the light sources and a front main plane of the emission lens unit equals the sum of or the difference between a) a focal length ( f) of the emission lens unit and b) the distance ( t) between the intersection plane (8; 9) and the array of the light sources. - an array of light sources, wherein the array of light sources is an array of vertical-cavity surface-emitting lasers, the light sources emitting emission cones, wherein the array of light sources is adapted such that the edges of the emission cones intersect in an intersection plane (8; 9), - an emission lens unit for homogenizing the intensity distribution in the far field,
A video decoding method, by a decoding apparatus, the method comprising: obtaining video information including picture reconstruction information and offset information from a bitstream; generating a reconstructed picture based on the picture reconstruction information; and applying an in-loop filter to the reconstructed picture, wherein the step of applying the in-loop filter includes the steps of: applying a deblocking filtering process to the reconstructed picture; and applying a sample adaptive offset process to the reconstructed picture based on the offset information after completing the deblocking filtering process, wherein the offset information includes offset type information for specifying an offset type for a sample, wherein the offset type information indicates a band offset for the sample, and wherein the offset information includes information on n offset values, characterized in that the offset information includes start band information explicitly indicating one of 32 bands as a start band of n bands to determine a band group comprising the n bands among the 32 bands, the start band information being different from the offset type information, the band group is determined further based on end band information variably indicating an end band of the n bands, wherein the band group is variably located in among the 32 bands based on the start band information, wherein an offset value corresponds to a band among the n bands for the sample, n is a positive integer. obtaining video information including picture reconstruction information and offset information from a bitstream; generating a reconstructed picture based on the picture reconstruction information; and applying an in-loop filter to the reconstructed picture, wherein the step of applying the in-loop filter includes the steps of: applying a deblocking filtering process to the reconstructed picture; and applying a sample adaptive offset process to the reconstructed picture based on the offset information after completing the deblocking filtering process, applying a deblocking filtering process to the reconstructed picture; and applying a sample adaptive offset process to the reconstructed picture based on the offset information after completing the deblocking filtering process, wherein the offset information includes offset type information for specifying an offset type for a sample, wherein the offset type information indicates a band offset for the sample, and wherein the offset information includes information on n offset values, characterized in that the offset information includes start band information explicitly indicating one of 32 bands as a start band of n bands to determine a band group comprising the n bands among the 32 bands, the start band information being different from the offset type information, the band group is determined further based on end band information variably indicating an end band of the n bands, wherein the band group is variably located in among the 32 bands based on the start band information, wherein an offset value corresponds to a band among the n bands for the sample, n is a positive integer.
An agricultural working machine, in particular a tractor, having a driver assistance system which has an input/output unit for an operator to specify an agricultural operational assignment such as ground/soil working, sowing, planting, plant protection, fertilizing, slurry spreading, harvesting or stubble breaking and for the operator to make the adjustments relating to the agricultural operational assignment, wherein the input/output unit displays virtual operating elements which allow the adjustments to be made and information corresponding to the adjustments to be made, characterized in that the input/output unit comprises a set-up assistant which is configured in a manner such that it enables the operator to set up the driver assistance system using the virtual operating elements so that the set-up assistant is configured as a function of the operational assignment specified by the operator.
A device for driving a fastener into a substrate, comprising an energy transfer element, movable between a starting position and a setting position, for transferring energy to the fastener, clutch means for temporarily holding the energy transfer element in the starting position, and energy transfer means for conveying the energy transfer element from the setting position into the starting position, characterized in that the device includes a clutch damper capable of damping a relative movement between the energy transfer element and the clutch means when the energy transfer element is coupled to the clutch means and once the clutch means is closed.
A middle ear implant system comprising: a disc-shape vibration surface (201, 301, 601) configured for implantation within skin (207, 308, 401) lying over skull bone (208, 307, 403) of a patient, with the disc-shape vibration surface parallel to an outer surface of the skin and to the skull bone so that sound vibrations striking the outer surface of the skin create corresponding vibrations in the disc-shape vibration surface within the skin; and a rigid ossicle connector (202, 300, 501) having a proximal end (205, 305, 505, 605) connected to the disc-shape vibration surface (201, 301, 601) and a distal end (204, 304, 504, 604) configured to connect to an ossicle (211, 405) in the middle ear of the patient so that vibrations of the disc-shape vibration surface can mechanically be coupled to the ossicle for perception by the patient as sound. a disc-shape vibration surface (201, 301, 601) configured for implantation within skin (207, 308, 401) lying over skull bone (208, 307, 403) of a patient, with the disc-shape vibration surface parallel to an outer surface of the skin and to the skull bone so that sound vibrations striking the outer surface of the skin create corresponding vibrations in the disc-shape vibration surface within the skin; and a rigid ossicle connector (202, 300, 501) having a proximal end (205, 305, 505, 605) connected to the disc-shape vibration surface (201, 301, 601) and a distal end (204, 304, 504, 604) configured to connect to an ossicle (211, 405) in the middle ear of the patient so that vibrations of the disc-shape vibration surface can mechanically be coupled to the ossicle for perception by the patient as sound.
An input apparatus comprising: an operation interface configured to receive an input operation from a user; a piezoelectric element attached to the operation interface; and a controller configured to acquire output based on the input operation to the operation interface from the piezoelectric element, and to execute different control with respect to a controlled apparatus in accordance with the output; wherein the operation interface is cantilevered from a base; the controller is configured to execute the different control in accordance with a polarity of voltage output from the piezoelectric element, said voltage becoming a lower negative voltage as the piezoelectric element expands more and becoming a higher positive voltage as the piezoelectric element contracts more; the controller is further configured to displace the power window in an opening direction or a closing direction in accordance with positive and negative voltage signals acquired from the piezoelectric element; characterized in that the controlled apparatus is a power window of a vehicle, and the controller is configured to determine a speed for opening or closing the power window in accordance with the magnitude of the voltage. an operation interface configured to receive an input operation from a user; a piezoelectric element attached to the operation interface; and a controller configured to acquire output based on the input operation to the operation interface from the piezoelectric element, and to execute different control with respect to a controlled apparatus in accordance with the output; wherein the operation interface is cantilevered from a base; the controller is configured to execute the different control in accordance with a polarity of voltage output from the piezoelectric element, said voltage becoming a lower negative voltage as the piezoelectric element expands more and becoming a higher positive voltage as the piezoelectric element contracts more; the controller is further configured to displace the power window in an opening direction or a closing direction in accordance with positive and negative voltage signals acquired from the piezoelectric element; characterized in that the controlled apparatus is a power window of a vehicle, and the controller is configured to determine a speed for opening or closing the power window in accordance with the magnitude of the voltage.
A method of operating a network node in a first network that is operating according to a first radio access technology, RAT, the network node controlling a first cell in the first network, the method comprising: receiving information for a terminal device served by the first cell (913; 1113), the received information corresponding to information for the terminal device that was provided to the terminal device from another cell of the first network, the information being traffic steering information and/or access network selection information that enables and controls interworking between the first network and a wireless local area network, WLAN, wherein the step of receiving comprises receiving the information from a network node that controls said another cell of the first network.