mhurhangee/ep-ind-claims huggingface dataset:
Flexible printed circuit board comprising at least one soldering element possessing a soldering face, accessible from a first face of the flexible printed circuit board, and a heating face, accessible from a second face of the flexible printed circuit board, characterized in that it comprises a main part, comprising said at least one soldering element, and at least one foldable part, extending from said main part and being configured to pass: - from a non-folded state, in which said at least one foldable part does not cover the heating face of said at least one soldering element; - to a folded state in which said at least one foldable part covers the heating face of said at least one soldering element. - from a non-folded state, in which said at least one foldable part does not cover the heating face of said at least one soldering element; - to a folded state in which said at least one foldable part covers the heating face of said at least one soldering element.
A method for transmitting scheduled uplink wireless transmissions, comprising: monitoring at least two downlink sub-frames in a radio frame for uplink scheduling grants in the radio frame; receiving from a first base station a first uplink scheduling grant in one of the at least two downlink sub-frames for at least a first uplink sub-frame wherein the first uplink scheduling grant is for multiple uplink sub-frames including the first uplink sub-frame; receiving from a second base station a second uplink scheduling grant in another of the at least two downlink sub-frames for at least the first uplink sub-frame after receiving the first uplink scheduling grant; and performing an uplink transmission in the first uplink sub-frame and at least one uplink sub-frame consecutive to the first uplink sub-frame based on both of the first uplink scheduling grant and the second uplink scheduling grant. monitoring at least two downlink sub-frames in a radio frame for uplink scheduling grants in the radio frame; receiving from a first base station a first uplink scheduling grant in one of the at least two downlink sub-frames for at least a first uplink sub-frame wherein the first uplink scheduling grant is for multiple uplink sub-frames including the first uplink sub-frame; receiving from a second base station a second uplink scheduling grant in another of the at least two downlink sub-frames for at least the first uplink sub-frame after receiving the first uplink scheduling grant; and performing an uplink transmission in the first uplink sub-frame and at least one uplink sub-frame consecutive to the first uplink sub-frame based on both of the first uplink scheduling grant and the second uplink scheduling grant.
Two-stage hole etching method comprising at least the steps: - providing a semiconductor wafer with a plurality of solar cell stacks which comprise an upper side (10.1) and a lower side (10.2) and which each have in the stated sequence a Ge substrate forming the lower side, a Ge part cell and at least two III-V part cells (18, 20), - carrying out a first method phase and a second method phase in the stated sequence, wherein - in the first method phase a first coating layer is applied to the upper side (10.1) of the semiconductor wafer, at least one first opening is produced in the first coating layer and by means of a first etching process a hole reaching into the semiconductor wafer from the upper side (10.1) of the semiconductor wafer through the III-V part cells at least to beyond a pn-transition (16.1) of the Ge part cell is produced in the area of the first opening, - in the second method phase a second coating layer is applied to the upper side (10.1) of the semiconductor wafer, a second opening, which is larger by comparison with the first opening and encloses the hole, is produced in the second coating layer and by means of a second etching process the hole is widened in the area of the second opening in a region reaching from the upper side (10.1) of the semiconductor wafer to the Ge part cell serving as an etching stop layer. - providing a semiconductor wafer with a plurality of solar cell stacks which comprise an upper side (10.1) and a lower side (10.2) and which each have in the stated sequence a Ge substrate forming the lower side, a Ge part cell and at least two III-V part cells (18, 20), - carrying out a first method phase and a second method phase in the stated sequence, wherein - in the first method phase a first coating layer is applied to the upper side (10.1) of the semiconductor wafer, at least one first opening is produced in the first coating layer and by means of a first etching process a hole reaching into the semiconductor wafer from the upper side (10.1) of the semiconductor wafer through the III-V part cells at least to beyond a pn-transition (16.1) of the Ge part cell is produced in the area of the first opening, - in the second method phase a second coating layer is applied to the upper side (10.1) of the semiconductor wafer, a second opening, which is larger by comparison with the first opening and encloses the hole, is produced in the second coating layer and by means of a second etching process the hole is widened in the area of the second opening in a region reaching from the upper side (10.1) of the semiconductor wafer to the Ge part cell serving as an etching stop layer.
An acceleration/deceleration erroneous operation determination device, comprising: an operation amount detection unit configured to detect an accelerator operation amount operated by a driver; a vehicle speed detection unit configured to detect a vehicle speed of a vehicle; a gradient detection unit configured to detect a rising gradient of a road surface; the acceleration/deceleration erroneous operation determination device being characterized by a continuation time detection unit configured to detect a continuation time for which the accelerator operation amount detected by the operation amount detection unit is greater than a predetermined operation amount threshold value; an erroneous operation determination unit configured to determine that the driver is erroneously performing an accelerator operation instead of a brake operation, when the continuation time detected by the continuation time detection unit exceeds a predetermined time threshold value; an operation time detection unit configured to detect an accelerator operation time by the driver; and a threshold value setting unit (S130, S131) configured to make variable at least one of the operation amount threshold value or the time threshold value in accordance with the vehicle speed detected by the vehicle speed detection unit, the rising gradient detected by the gradient detection unit, and the accelerator operation time detected by the operation time detection unit. an operation amount detection unit configured to detect an accelerator operation amount operated by a driver; a vehicle speed detection unit configured to detect a vehicle speed of a vehicle; a gradient detection unit configured to detect a rising gradient of a road surface; the acceleration/deceleration erroneous operation determination device being characterized by a continuation time detection unit configured to detect a continuation time for which the accelerator operation amount detected by the operation amount detection unit is greater than a predetermined operation amount threshold value; an erroneous operation determination unit configured to determine that the driver is erroneously performing an accelerator operation instead of a brake operation, when the continuation time detected by the continuation time detection unit exceeds a predetermined time threshold value; an operation time detection unit configured to detect an accelerator operation time by the driver; and a threshold value setting unit (S130, S131) configured to make variable at least one of the operation amount threshold value or the time threshold value in accordance with the vehicle speed detected by the vehicle speed detection unit, the rising gradient detected by the gradient detection unit, and the accelerator operation time detected by the operation time detection unit.
An article of footwear having an upper and a sole structure secured to the upper, the sole structure comprising: a midsole formed from a polymer foam material having an upper surface positioned adjacent to the upper, and a lower surface defining a plurality of cavities; an outsole secured to the midsole, the outsole forming at least part of a ground-contacting surface of the footwear, the outsole forming a plurality of apertures, each of the plurality of apertures being aligned with one of the plurality of cavities; and a plurality of fluid-filled chambers at least partially located within the cavities, the chambers extending into the apertures and including a lower surface that is substantially flush with a ground-contacting surface of the outsole, wherein said lower surface forms at least part of the ground-contacting surface of the footwear, and wherein at least some of the chambers having a diamond shape. a midsole formed from a polymer foam material having an upper surface positioned adjacent to the upper, and a lower surface defining a plurality of cavities; an outsole secured to the midsole, the outsole forming at least part of a ground-contacting surface of the footwear, the outsole forming a plurality of apertures, each of the plurality of apertures being aligned with one of the plurality of cavities; and a plurality of fluid-filled chambers at least partially located within the cavities, the chambers extending into the apertures and including a lower surface that is substantially flush with a ground-contacting surface of the outsole, wherein said lower surface forms at least part of the ground-contacting surface of the footwear, and wherein at least some of the chambers having a diamond shape.
Compounds according to the general formula (Ia) wherein Ar 1 is unsubstituted phenylene and wherein; X and Y are selected from the group consisting of hydrogen or CN; and wherein if X is hydrogen and Y is CN, then R 1, R 2 or R 3 are independently from each other hydrogen or -CF 3, with the proviso that R 1, R 2 or R 3 are not simultaneously hydrogen; if X is CN and Y is hydrogen; then R 1, R 2 or R 3 are independently from each other hydrogen or -CF 3; M is a single covalent bond or a spacer unit, which is a straight-chain or branched alkylene residue having 8, 9, 10 or 11 carbon atoms wherein one or more CH2 groups independently may be replaced by group selected from -O-, -CO--CO-O-, -O-CO-, -C=C- or -C≡C-; Y 1 is -O-; Y 2 selected from the group consisting of single bond, -O-, -CO-, -CO-O-, -O-CO-; P is a polymerizable group, which is selected from acrylate, methacrylate, vinyl ether and ester, epoxy, styrene, siloxanes, imide monomers, amic acid monomers; and wherein n is 0, 1, 2 or 3. Ar 1 is unsubstituted phenylene and wherein; X and Y are selected from the group consisting of hydrogen or CN; and wherein if X is hydrogen and Y is CN, then R 1, R 2 or R 3 are independently from each other hydrogen or -CF 3, with the proviso that R 1, R 2 or R 3 are not simultaneously hydrogen; if X is CN and Y is hydrogen; then R 1, R 2 or R 3 are independently from each other hydrogen or -CF 3; M is a single covalent bond or a spacer unit, which is a straight-chain or branched alkylene residue having 8, 9, 10 or 11 carbon atoms wherein one or more CH2 groups independently may be replaced by group selected from -O-, -CO--CO-O-, -O-CO-, -C=C- or -C≡C-; Y 1 is -O-; Y 2 selected from the group consisting of single bond, -O-, -CO-, -CO-O-, -O-CO-; P is a polymerizable group, which is selected from acrylate, methacrylate, vinyl ether and ester, epoxy, styrene, siloxanes, imide monomers, amic acid monomers; and wherein n is 0, 1, 2 or 3.
Water supply device for a domestic washing appliance, comprising a monolithic body of plastic material obtained by means of injection-molding and without any welds, said body having two main faces facing each other and connected by a perimetral transverse wall so that it defines an internal cavity and has a substantially flat shape, said body having at least: - a through-hole passing through one of the two main faces, and - a vapour escape chamber formed within said internal cavity and communicating with the outside and with said through-hole, said monolithic body further including an air-break device for the supply water, said water supply device being characterized in that said air-break device includes: - a first half-duct located in said internal cavity and tapering at one end; and - a second half-duct located in said internal cavity and tapering at one end, said tapering ends (24, 28) facing each other. - a through-hole passing through one of the two main faces, and - a vapour escape chamber formed within said internal cavity and communicating with the outside and with said through-hole, said monolithic body further including an air-break device for the supply water, - a first half-duct located in said internal cavity and tapering at one end; and - a second half-duct located in said internal cavity and tapering at one end, said tapering ends (24, 28) facing each other.
A method of coding video information using scalable extension to High Efficiency Video Coding, SHVC, or multi-view High Efficiency Video Coding, MV-HEVC, comprising: storing video information associated with a plurality of layers; determining whether sps_temporal_id_nesting_flag is present in a sequence parameter set of a bitstream, wherein sps_temporal_id_nesting_flag is used to indicate whether a temporal identifier, ID, of a reference picture for pictures that refer to the sequence parameter set, SPS, can be nested; and in response to determining that sps_temporal_id_nesting_flag is not present in the bitstream: when the value of sps_max_sub_layers_minus1 of the SPS is greater than zero, sps_max_sub_layers_minus1 indicating a maximum number of temporal sub-layers in a particular layer of the plurality of layers, inferring a value of sps_temporal_id_nesting_flag to be equal to a value of vps_temporal_id_nesting_flag present in the video parameter set of the bitstream, vps_temporal_id_nesting_flag indicating whether a temporal ID of a reference picture for any pictures can be nested; and otherwise, inferring the value of sps_temporal_id_nesting_flag to be equal to 1. storing video information associated with a plurality of layers; determining whether sps_temporal_id_nesting_flag is present in a sequence parameter set of a bitstream, wherein sps_temporal_id_nesting_flag is used to indicate whether a temporal identifier, ID, of a reference picture for pictures that refer to the sequence parameter set, SPS, can be nested; and in response to determining that sps_temporal_id_nesting_flag is not present in the bitstream: when the value of sps_max_sub_layers_minus1 of the SPS is greater than zero, sps_max_sub_layers_minus1 indicating a maximum number of temporal sub-layers in a particular layer of the plurality of layers, inferring a value of sps_temporal_id_nesting_flag to be equal to a value of vps_temporal_id_nesting_flag present in the video parameter set of the bitstream, vps_temporal_id_nesting_flag indicating whether a temporal ID of a reference picture for any pictures can be nested; and otherwise, inferring the value of sps_temporal_id_nesting_flag to be equal to 1. when the value of sps_max_sub_layers_minus1 of the SPS is greater than zero, sps_max_sub_layers_minus1 indicating a maximum number of temporal sub-layers in a particular layer of the plurality of layers, inferring a value of sps_temporal_id_nesting_flag to be equal to a value of vps_temporal_id_nesting_flag present in the video parameter set of the bitstream, vps_temporal_id_nesting_flag indicating whether a temporal ID of a reference picture for any pictures can be nested; and otherwise, inferring the value of sps_temporal_id_nesting_flag to be equal to 1.
A bearing assembly comprising a first bearing, a second bearing, a spring applying a preload to each of the bearings (10,11), and a sleeve surrounding the spring and the bearings (10,11), wherein the sleeve comprises an end portion that extends axially beyond the first bearing, and characterised in that the end portion comprises a step down in outer diameter that defines a seat for an o-ring.
A production plant for portioning food, wherein the production plant comprises at least one cutting machine for food and a further machine, comprising: a display device comprising a first display region and a second display region, the display device being adapted to display possible output products of the cutting machine and possible output products of the further machine in the first display region; a selection unit by means of which a user can select an output product from possible output products of the cutting machine which are displayed in the first display region, and by means of which the user can select an output product from possible output products of the further machine which are displayed in the first display region, the selection unit being adapted to allocate an output product selected by the user from the first display region to the second display region; a control command unit adapted to convert an output product of the cutting machine which is allocated to the second display region into control commands for the cutting machine, and to convert an output product of the further machine which is allocated to the second region into control commands for the further machine. a display device comprising a first display region and a second display region, the display device being adapted to display possible output products of the cutting machine and possible output products of the further machine in the first display region; a selection unit by means of which a user can select an output product from possible output products of the cutting machine which are displayed in the first display region, and by means of which the user can select an output product from possible output products of the further machine which are displayed in the first display region, the selection unit being adapted to allocate an output product selected by the user from the first display region to the second display region; a control command unit adapted to convert an output product of the cutting machine which is allocated to the second display region into control commands for the cutting machine, and to convert an output product of the further machine which is allocated to the second region into control commands for the further machine.
A method for implementing an optical interface with a plurality of velocities, comprising at a receiving side of the optical interface: recovering clock and data of an input data stream, wherein the recovering data is embodied as recovering serial data into parallel data; and carrying out velocity detection and data detection on a recovered data stream, and adjusting the system into a normal operation state according to the results of the velocity detection and the data detection, and comprising at a transmitting side of the optical interface: configuring transmission velocity according to the velocity of the system in the normal operation state; and recovering the transmitted data from parallel data to serial data, and transmitting the recovered serial data; characterized by the step of carrying out velocity detection on the recovered data stream embodied as: detecting whether consecutive identical contents appear in the recovered data stream in predetermined time period; and in the case that it is detected that consecutive identical contents appear in the data stream in predetermined time period, transmitting a warning of excessive operational velocity, reducing the operational velocity, continuing monitoring the operational velocity, wherein if consecutive identical contents still appear in a next predetermined time period, it continues reducing the operational velocity until no consecutive identical contents appear. recovering clock and data of an input data stream, wherein the recovering data is embodied as recovering serial data into parallel data; and carrying out velocity detection and data detection on a recovered data stream, and adjusting the system into a normal operation state according to the results of the velocity detection and the data detection, and configuring transmission velocity according to the velocity of the system in the normal operation state; and recovering the transmitted data from parallel data to serial data, and transmitting the recovered serial data; detecting whether consecutive identical contents appear in the recovered data stream in predetermined time period; and in the case that it is detected that consecutive identical contents appear in the data stream in predetermined time period, transmitting a warning of excessive operational velocity, reducing the operational velocity, continuing monitoring the operational velocity, wherein if consecutive identical contents still appear in a next predetermined time period, it continues reducing the operational velocity until no consecutive identical contents appear.
Method for pre-treating biomasses provided in bales, comprising a step of shredding said biomasses, wherein said method comprises, upstream of said step of shredding said biomasses, a step of removing foreign bodies for removing foreign bodies contained in said biomasses, wherein it further comprises, upstream of said step of removing foreign bodies, a step of disintegrating said bales and wherein it further comprises, downstream of said shredding step, a step of soaking said biomasses by immersing said biomasses in water, wherein said soaking step comprises a sub-step of removing fine foreign bodies and dusts.
A session management method being part of a Tracking Area Update, TAU, procedure of a terminal, said method comprising: receiving, by a first session management, SM, entity a second SM relocation request from a target mobility management, MM, entity, wherein the second SM relocation request comprises an identifier of the terminal and wherein the MM entity and the first SM entity are separate physical entities; sending, by the first SM entity, a session context request to a second SM entity, wherein the session context request comprises the identifier of the terminal and wherein the MM entity and the second SM entity are separate physical entities; receiving, by the first SM entity, first session context information from the second SM entity; generating, by the first SM entity, second session context information based on the first session context information; and sending, by the first SM entity, the second session context information to the terminal. receiving, by a first session management, SM, entity a second SM relocation request from a target mobility management, MM, entity, wherein the second SM relocation request comprises an identifier of the terminal and wherein the MM entity and the first SM entity are separate physical entities; sending, by the first SM entity, a session context request to a second SM entity, wherein the session context request comprises the identifier of the terminal and wherein the MM entity and the second SM entity are separate physical entities; receiving, by the first SM entity, first session context information from the second SM entity; generating, by the first SM entity, second session context information based on the first session context information; and sending, by the first SM entity, the second session context information to the terminal.