mhurhangee/ep-ind-claims huggingface dataset:
Method for packaging powders in containers through a system (100, 101) that conveys the powders through a hopper and a first tube connected to said hopper towards the containers, said method comprises the following step: a) Sucking air from the inner region of said hopper and of said first tube so as to compact the conveyed powders; and said method being characterized in that it further comprises the following step: b) introducing gas so as to adjust the degree of compacting of the powders inside said first tube. a) Sucking air from the inner region of said hopper and of said first tube so as to compact the conveyed powders; and said method being characterized in that it further comprises the following step: b) introducing gas so as to adjust the degree of compacting of the powders inside said first tube.
Tool for fixing electrical cables to a supporting surface by means of clamps, comprising a housing containing one in axial direction movable ramming bolt, a replaceable magazine for storing a set of clamps and a loading or charging mechanism for bringing one and one clamp from the magazine to a position in a bore, where the ramming bolt is configured for driving the clamp out of the tool and into the supporting surface, the tool comprises a mechanism that is configured for separating a first clamp from a second clamp in the magazine, characterised in that the loading or charging mechanism comprises a magnet.
A method for metallization of a solar cell substrate comprising, in this order, the steps of (i) providing a solar cell substrate having a plating base on at least a portion of one surface of said substrate, (ii) depositing a first resist layer onto the whole substrate including the edges and side walls of said substrate and patterning said first resist layer and thereby forming first openings which expose at least a portion of the plating base, (iii) forming a conductive seed layer on top of the patterned first resist layer and on those portions of the plating base which are exposed by the first openings, (iv) electroplating a first metal or metal alloy layer onto the conductive seed layer formed in step (iii), (v) etching away an amount of the first metal or metal alloy layer sufficient to remove the first metal or metal alloy layer from the patterned first resist layer leaving a patterned first metal or metal alloy layer in the first openings, (vi) etching away the conductive seed layer from the patterned first resist layer, and (vii) removing the patterned first resist layer. (i) providing a solar cell substrate having a plating base on at least a portion of one surface of said substrate, (ii) depositing a first resist layer onto the whole substrate including the edges and side walls of said substrate and patterning said first resist layer and thereby forming first openings which expose at least a portion of the plating base, (iii) forming a conductive seed layer on top of the patterned first resist layer and on those portions of the plating base which are exposed by the first openings, (iv) electroplating a first metal or metal alloy layer onto the conductive seed layer formed in step (iii), (v) etching away an amount of the first metal or metal alloy layer sufficient to remove the first metal or metal alloy layer from the patterned first resist layer leaving a patterned first metal or metal alloy layer in the first openings, (vi) etching away the conductive seed layer from the patterned first resist layer, and (vii) removing the patterned first resist layer.
A method comprising: receiving, by an apparatus, orthogonal frequency division multiplexing, OFDM, signal parameters including a first subcarrier spacing of a first numerology μ, a value of a first offset N grid, x start, μ in units of resource blocks, RBs, a quantity N grid, x size, μ of usable RBs of the first numerology μ, a value of a second offset N grid, x start, μ 0 in units of RBs, and a quantity N grid, x size, μ 0 of the usable RBs of a reference numerology μ 0, where x identifies a transmission direction being either downlink or uplink, wherein the first offset is between a reference point and a start of the usable RBs of the first numerology μ, and the second offset is between the reference point and a start of usable RBs of the reference numerology μ 0; generating, by the apparatus, an OFDM signal according to a third offset (304, 306) between a middle subcarrier frequency of the usable RBs of the first numerology and a carrier frequency f 0; and transmitting, by the apparatus, the OFDM signal, characterized in that a value k 0, x μ of the third offset satisfies: k 0, x μ = N grid, x start, μ + N grid, x size, μ / 2 N sc RB − N grid, x start, μ 0 + N grid, x size, μ 0 / 2 N sc RB 2 μ 0 − μ wherein N sc RB is a quantity of subcarriers in an RB. receiving, by an apparatus, orthogonal frequency division multiplexing, OFDM, signal parameters including a first subcarrier spacing of a first numerology μ, a value of a first offset N grid, x start, μ in units of resource blocks, RBs, a quantity N grid, x size, μ of usable RBs of the first numerology μ, a value of a second offset N grid, x start, μ 0 in units of RBs, and a quantity N grid, x size, μ 0 of the usable RBs of a reference numerology μ 0, where x identifies a transmission direction being either downlink or uplink, wherein the first offset is between a reference point and a start of the usable RBs of the first numerology μ, and the second offset is between the reference point and a start of usable RBs of the reference numerology μ 0; generating, by the apparatus, an OFDM signal according to a third offset (304, 306) between a middle subcarrier frequency of the usable RBs of the first numerology and a carrier frequency f 0; and transmitting, by the apparatus, the OFDM signal, characterized in that a value k 0, x μ of the third offset satisfies: k 0, x μ = N grid, x start, μ + N grid, x size, μ / 2 N sc RB − N grid, x start, μ 0 + N grid, x size, μ 0 / 2 N sc RB 2 μ 0 − μ wherein N sc RB is a quantity of subcarriers in an RB.
Automatic multipurpose shield device for vehicles comprising a tubular structure configured to rotate and project the whole shield device, wherein said tubular structure comprises two parts, a main container body (a) and a secondary body (b) located inside the main body in a resting state, through means that connect both bodies, comprising inside said tubular structure at least two pairs of shield rolls, a lower pair connected to the main body by terminal supports and an upper pair, with a proximal end supported from the main body (a) and the other distal end with supports fixed to the secondary body (b); wherein each of the axes that constitute the lower pair comprises a tubular motor located inside a winding tube and gears for direct transmission towards other equal gears; the upper axes comprising a set of axes located inside the corresponding winding tubes; said tubular structure comprising a pair of articulated projecting arms and another pair of projecting arms located below the previous pair, which are attached to the main body of the device by a robust extendible rail; wherein all the projecting arms comprise a tension system based on one of the chain-spring, double spring cable or cable-spring embodiment; said main body of the tubular structure being supported by cross bars of the roof rack (j), through a rotatory base connected to a worm drive system (L, m), wherein the movement of the worm drive system is driven by a mini servomotor (k) and it is transmitted both to the main body and to a geared pulley (n) attached to said gear ring, said pulley in turn transmitting its movement through a geared belt to another pulley located close to the end of the main body and the latter, in turn, transmits its movement to a gear train that produces the shifting of a rack (s) attached to the main body by a rail (r), wherein said rack (s) hits the internal face of the top of the secondary body (d) and it is affixed to it, transmitting its longitudinal movement to the secondary body, printing its projection or fold.
An isolated human antibody or antigen-binding fragment thereof that specifically binds human angiopoietin-like protein 3 (hANGPTL3) of SEQ ID NO:161 and neutralizes, reduces, or interferes with, at least one activity of hANGPTL3, wherein the antibody or fragment: (a) comprises a HCVR and LCVR sequence pair (HCVR/LCVR) of SEQ ID NO: 66/74; (b) comprises heavy chain complementarity determining region sequences, HCDR1, HCDR2 and HCDR3, and light chain CDR sequences, LCDR1, LCDR2 and LCDR3, contained within a heavy chain variable region (HCVR) and light chain variable region (LCVR) sequence pair (HCVR/LCVR) of SEQ ID NO: 66/74, wherein the CDRs are determined by the Kabat definition, the Chothia definition or the AbM definition; or (c) comprises a HCDR1/HCDR2/HCDR3/LCDR1/LCDR2/LCDR3 sequence combination of SEQ ID NOS: 68/70/72/76/78/80. (a) comprises a HCVR and LCVR sequence pair (HCVR/LCVR) of SEQ ID NO: 66/74; (b) comprises heavy chain complementarity determining region sequences, HCDR1, HCDR2 and HCDR3, and light chain CDR sequences, LCDR1, LCDR2 and LCDR3, contained within a heavy chain variable region (HCVR) and light chain variable region (LCVR) sequence pair (HCVR/LCVR) of SEQ ID NO: 66/74, wherein the CDRs are determined by the Kabat definition, the Chothia definition or the AbM definition; or (c) comprises a HCDR1/HCDR2/HCDR3/LCDR1/LCDR2/LCDR3 sequence combination of SEQ ID NOS: 68/70/72/76/78/80.
A pasty composition for aluminum brazing, containing an aluminum-containing powder, wherein in a case where on a cumulative grading curve plotted in a graph in which Q volume% showing a percentage of a volume of particles, in the aluminum-containing powder, whose particle diameter is each less than or equal to D μm is represented with a horizontal axis showing D μm and a vertical axis showing Q volume%, the particle diameter D μm which corresponds to the Q volume% is indicated as D μm, D μm is greater than or equal to 20 μm and less than or equal to 150 μm; and D μm/D μm is less than or equal to 5, wherein the particle diameter is measured by using a laser diffraction-type particle size analyzer made by Honeywell Inc., with a product name of Microtrack HRA; wherein a mass percentage of particles, in the aluminum-containing powder, which pass through a screen mesh having an opening of 45 μm is less than or equal to 50%, wherein a flowability of the aluminum-containing powder is less than or equal to 80 seconds/50 g measured according to JIS Z 2502, wherein the aluminum-containing powder is one of an aluminum-silicon-based alloy powder; an aluminum-silicon-zinc-based alloy powder; a mixed powder of an aluminum powder and a silicon powder; and a mixed powder of an aluminum powder, a silicon powder, and a zinc powder.
A suction bag for medical or surgical use, the suction bag having a connection for a suction target and which suction bag comprises a bag portion and, fixedly connected thereto, a lid which comprises a negative pressure channel for leading negative pressure suction to the suction bag, an installation recess on the underside of the lid for a filter, surrounded with a sleeve, and a cylindrical filter installed in the installation recess in connection with the negative pressure channel, characterized in that the cross section of the sleeve differs in shape from circular so that the outer diameter of its widest point is at least 0.90% larger than the outer diameter of its narrowest point.
A method for sequential processing of sheet-type substrates, in which in each case a front side and/or a back side of these substrates is or are processed consecutively in a production line, wherein in each case a printing ink or an ink is applied to the respective side of the substrates in at least one non-impact printing device, wherein the printing ink or the ink is dried, wherein thereafter a dispersion coating or a coating cured by UV radiation is applied to the relevant side of the substrates, wherein the dispersion coating or the coating cured by UV radiation is dried, wherein the substrates are printed in each case by several non-impact printing devices, wherein these non-impact printing devices print the substrates consecutively in transport direction, wherein the several non-impact printing devices print the substrates in multiple colors, wherein for each of these printing inks in each case one specific of these non-impact printing devices is provided, characterized in that prior to the application of the printing ink or ink to the relevant side of the substrates in each case first a primer or first coating is applied, wherein the substrates processed by means of an application with the primer or first coating are dried by means of hot air and an irradiation with infrared radiation, wherein the substrates processed by means of an application of printing ink or ink are dried by means of a radiation with ultraviolet radiation or by means of hot air and a radiation with infrared radiation, wherein the substrates are fed to a mechanical processing device, which executes a further mechanical processing on the substrates, wherein the further mechanical processing occurs by means of punching and/or inserting grooves and/or separating parts and/or by means of breaking out panels from their respective composite in the respective substrate.
A substrate analysis system, the system comprising: (a) a probe configured and operable for scanning a substrate and determine one or more parameters indicative of one or more conditions or properties of the substrate at individual points corresponding to the probe position, and thereby evaluating substrate status at said individual points and generating output status indicative datum for said individual points; the system being characterized in that it comprises: (b) a substrate position indicator configured for positioning at the substrate being analyzed; (c) a measurement module configured for receiving signals from at least one of the substrate position indicator and the probe, and determining a relative position of said position indicator and said probe; and (d) a controller adapted to coordinate operation of said probe and said measurement module so that said relative position is determined for each of said individual points. (a) a probe configured and operable for scanning a substrate and determine one or more parameters indicative of one or more conditions or properties of the substrate at individual points corresponding to the probe position, and thereby evaluating substrate status at said individual points and generating output status indicative datum for said individual points; the system being characterized in that it comprises: (b) a substrate position indicator configured for positioning at the substrate being analyzed; (c) a measurement module configured for receiving signals from at least one of the substrate position indicator and the probe, and determining a relative position of said position indicator and said probe; and (d) a controller adapted to coordinate operation of said probe and said measurement module so that said relative position is determined for each of said individual points.
An image forming device which forms an image on a medium and includes a liquid discharge head (11c, 11k, 11y, 11m) in which a plurality of nozzles for discharging liquid drop are arranged side by side, comprising: a drive waveform generating unit generating a first drive waveform (Pd) containing a first drive signal (P1, P2, P3; P11, P13, P14) to discharge an amount of liquid drop used for image formation, and a second drive waveform (Pk) containing a second drive signal (Pk; P12) to discharge an amount of liquid drop smaller than a minimum discharge drop amount used for image formation; and a selecting unit selecting at least one of the first drive signal in the first drive waveform and the second drive signal in the second drive waveform in response to a control signal (M0, M1, M2, M3; MN0, MN1, MN2, MN3), to output the selected drive signal to the liquid discharge head; characterised in that the drive waveform generating unit generates the first drive waveform and the second drive waveform within a single drive cycle. a drive waveform generating unit generating a first drive waveform (Pd) containing a first drive signal (P1, P2, P3; P11, P13, P14) to discharge an amount of liquid drop used for image formation, and a second drive waveform (Pk) containing a second drive signal (Pk; P12) to discharge an amount of liquid drop smaller than a minimum discharge drop amount used for image formation; and a selecting unit selecting at least one of the first drive signal in the first drive waveform and the second drive signal in the second drive waveform in response to a control signal (M0, M1, M2, M3; MN0, MN1, MN2, MN3), to output the selected drive signal to the liquid discharge head; characterised in that the drive waveform generating unit generates the first drive waveform and the second drive waveform within a single drive cycle.
A method implemented by a base station (16, 400, 500) in a wireless communication network comprising multiple base stations, the method comprising: selecting, based on current radio environment conditions experienced by a wireless device, a radio environment context from a plurality of stored radio environment contexts indicative of radio conditions at respective locations in the wireless communication network; and selecting a target base station for a handover using a mapping between the selected radio environment context and one or more candidate base stations that are predicted, based on historical measurement data collected over time from a plurality of wireless devices, to provide the highest expected rewards in terms of a performance metric given the selected radio environment context. selecting, based on current radio environment conditions experienced by a wireless device, a radio environment context from a plurality of stored radio environment contexts indicative of radio conditions at respective locations in the wireless communication network; and selecting a target base station for a handover using a mapping between the selected radio environment context and one or more candidate base stations that are predicted, based on historical measurement data collected over time from a plurality of wireless devices, to provide the highest expected rewards in terms of a performance metric given the selected radio environment context.
A method comprising: predicting, by a device, a failure of a first tunnel in a software-defined wide area network, SD-WAN; making, by the device, a prediction as to whether a backup tunnel in the SD-WAN will satisfy a service level agreement, SLA, associated with traffic on the first tunnel; proactively rerouting, by the device, the traffic from the first tunnel onto the backup tunnel, based on the predicted failure of the first tunnel in the SD-WAN and the prediction as to whether the backup tunnel will satisfy the SLA of the traffic; and monitoring, by the device, one or more quality of service, QoS, metrics for the rerouted traffic, to ensure that the backup tunnel satisfies the SLA of the traffic. predicting, by a device, a failure of a first tunnel in a software-defined wide area network, SD-WAN; making, by the device, a prediction as to whether a backup tunnel in the SD-WAN will satisfy a service level agreement, SLA, associated with traffic on the first tunnel; proactively rerouting, by the device, the traffic from the first tunnel onto the backup tunnel, based on the predicted failure of the first tunnel in the SD-WAN and the prediction as to whether the backup tunnel will satisfy the SLA of the traffic; and monitoring, by the device, one or more quality of service, QoS, metrics for the rerouted traffic, to ensure that the backup tunnel satisfies the SLA of the traffic.
A secondary battery (10, 11), comprising: an electrode assembly; and a pouch case in which the electrode assembly is embedded, wherein the pouch case includes a first case part formed with a first accommodating part in which a part of the electrode assembly is embedded, and a second case part formed with a second accommodating part in which the remaining part of the electrode assembly is accommodated, the first case part and the second case part are in contact with each other in an edge portion surrounding the first and second accommodating parts (110s, 120s) and are sealed by a sealing part formed in a band shape on at least a part of the edge portion, the sealing part includes a first sealing part having a first width and a second sealing part having a second width smaller than the first width, and a central portion of the second sealing part in a longitudinal direction coincides with a central portion of a long side of the electrode assembly, wherein: the sealing part further includes a first inclined portion which connects the first sealing part and the second sealing part and has a shape inclined toward the electrode assembly from the outside of the pouch case, characterised by a second inclined portion which connects the first sealing part and the second sealing part and has a shape inclined toward the outside of the pouch case from the electrode assembly. an electrode assembly; and a pouch case in which the electrode assembly is embedded, wherein the pouch case includes a first case part formed with a first accommodating part in which a part of the electrode assembly is embedded, and a second case part formed with a second accommodating part in which the remaining part of the electrode assembly is accommodated, the first case part and the second case part are in contact with each other in an edge portion surrounding the first and second accommodating parts (110s, 120s) and are sealed by a sealing part formed in a band shape on at least a part of the edge portion, the sealing part includes a first sealing part having a first width and a second sealing part having a second width smaller than the first width, and a central portion of the second sealing part in a longitudinal direction coincides with a central portion of a long side of the electrode assembly, wherein: the sealing part further includes a first inclined portion which connects the first sealing part and the second sealing part and has a shape inclined toward the electrode assembly from the outside of the pouch case, characterised by a second inclined portion which connects the first sealing part and the second sealing part and has a shape inclined toward the outside of the pouch case from the electrode assembly. the sealing part further includes a first inclined portion which connects the first sealing part and the second sealing part and has a shape inclined toward the electrode assembly from the outside of the pouch case, characterised by a second inclined portion which connects the first sealing part and the second sealing part and has a shape inclined toward the outside of the pouch case from the electrode assembly.