mhurhangee/ep-ind-claims huggingface dataset:
A three-dimensional fabricating chamber comprising: thermal-insulation walls (3A, 3B, 3C, 3D, 3E, 3F, and 3G); a processing space surrounded by the thermal-insulation walls (3A, 3B, 3C, 3D, 3E, 3F, and 3G), to fabricate a three-dimensional fabrication object; a processing space heater configured to heat the processing space; and a thermal-insulation-wall mover (23, 23') configured to displace at least a part of the thermal-insulation walls (3A, 3B, 3C, 3D, 3E, 3F, and 3G) to increase or decrease a volume of the processing space, a controller, characterised in that the controller is configured to let the processing space heater carry out a preheating process of the processing space before start of a fabrication process, and wherein at a time of the preheating process, the controller is configured to let the thermal-insulation-wall mover decrease the volume of the processing space thermal-insulation walls (3A, 3B, 3C, 3D, 3E, 3F, and 3G); a processing space surrounded by the thermal-insulation walls (3A, 3B, 3C, 3D, 3E, 3F, and 3G), to fabricate a three-dimensional fabrication object; a processing space heater configured to heat the processing space; and a thermal-insulation-wall mover (23, 23') configured to displace at least a part of the thermal-insulation walls (3A, 3B, 3C, 3D, 3E, 3F, and 3G) to increase or decrease a volume of the processing space, a controller, characterised in that the controller is configured to let the processing space heater carry out a preheating process of the processing space before start of a fabrication process, and wherein at a time of the preheating process, the controller is configured to let the thermal-insulation-wall mover decrease the volume of the processing space
A rope drum installation for a rope crane, comprising a bearing, a traction rope drum and an auxiliary rope drum, wherein the traction rope drum comprises a traction rope motor connected to a bearing and the auxiliary rope drum comprises an auxiliary rope motor mounted on the traction rope drum and configured to transmit a torque between the traction rope drum and the auxiliary rope drum, characterized in that the auxiliary rope drum is mounted rotatably relative to the bearing in a first operating state and is non-rotatably connected to the bearing in a second operating state such that the traction rope drum may be driven by means of the auxiliary rope motor in the second operating state.
A method for the manufacture of a carbon fibre-reinforced ceramic brake or clutch disc for a motorised land vehicle, which method comprises preparing a carbon fibre preform having dimensions which substantially correspond to those of the desired disc, densifying said preform with carbon using only a single stage chemical vapour infiltration process, and siliconising said densified preform by reaction with molten silicon.
Process for treatment of concentrated solutions originating from drained waste waters from communal and industrial waste, comprising the steps of adding calcium oxide and reused solidificate to the concentrated solution thereby creating a solidificate; reintroducing into the process a portion of the created solidificate; and taking the remaining portion of the created solidificate by an elevator to a device for drying and cooling and for evaporation of water contained in the remaining portion while drying same, creating thereby a neutral and stable solidificate as the final product.
A method for restricted target wake time, R-TWT, operation for latency sensitive traffic in a wireless local area network, WLAN, the method comprising: sending, by a first Access Point, AP, a R-TWT response to a first STA in a non-AP MLD to set up R-TWT agreement on any one or more of at least one link to which at least one Traffic Identifier, TID, for latency sensitive traffic has been mapped; wherein the mapping between the at least one TID for latency sensitive traffic and the at least one link is established by sending a first response to the first STA to map the at least one TID for latency sensitive traffic to the at least one link set up between the AP MLD and the non-AP MLD, wherein the AP MLD comprises a plurality of APs and the non-AP MLD comprises a plurality of non-AP STAs.
Method for operating a water-conducting household appliance with a tub, a drum for accommodating laundry items, a drive motor for the drum, a speed-regulated pump, which is connected to the tub via a washing liquor duct, and a control facility, wherein during a spinning phase, which contains at least one spinning step, the power consumption P of the speed-regulated pump is checked as a function of the freely spun quantity of water, characterised in that a speed n P of the speed-regulated pump is varied as a function of the density ρ of a conveyed medium, which is a multiphase medium containing an aqueous liquid and/or air.
A light source optical system configured to be used with an excitation light source configured to emit first color light, the light source optical system comprising: a wavelength conversion unit configured to receive the first color light emitted by the excitation light source and emit second color light with a wavelength different from a wavelength of the first color light; and a first optical system and a second optical system provided in an optical path between the excitation light source and the wavelength conversion unit, wherein the wavelength conversion unit includes: a wavelength conversion region configured to convert the first color light into the second color light; wherein the first optical system includes at least one optical element having a negative power, wherein the second optical system as a whole has a positive power, characterised in that Conditional Expression is satisfied as follows: 1.8 < Fn / F 2 < 5.0, where Fn is a focal length for a d-line of the optical element having the negative power of the first optical element, and F2 is a focal length for the d-line of the second optical system. a wavelength conversion unit configured to receive the first color light emitted by the excitation light source and emit second color light with a wavelength different from a wavelength of the first color light; and a first optical system and a second optical system provided in an optical path between the excitation light source and the wavelength conversion unit, wherein the wavelength conversion unit includes: a wavelength conversion region configured to convert the first color light into the second color light; wherein the first optical system includes at least one optical element having a negative power, wherein the second optical system as a whole has a positive power, characterised in that Conditional Expression is satisfied as follows: 1.8 < Fn / F 2 < 5.0, where Fn is a focal length for a d-line of the optical element having the negative power of the first optical element, and F2 is a focal length for the d-line of the second optical system. Fn is a focal length for a d-line of the optical element having the negative power of the first optical element, and F2 is a focal length for the d-line of the second optical system.
An emergency hydraulic unit for a hydraulic closed circuit motorization system for controlling the driving of a transport vehicle; the hydraulic circuit comprising at least a motorized pump for sending pressurised fluid in a delivery branch and for receiving the fluid from a return branch of the hydraulic circuit; the unit comprising: - pressure detection means for detecting the pressure in the delivery branch and in the return branch and for outputting respective electric signals; - an emergency solenoid valve designed to be hydraulically connected to the delivery branch, on one side, and to the return branch on the other side; - a command and control unit in emergency conditions configured to receive said electric signals from said pressure detecting means and connected to said solenoid valve to switch the solenoid valve between an open position, in which it directly connects, in use, the delivery branch with the return branch, and a closed position in which it hydraulically isolates the delivery branch and the return branch; said command and control unit in emergency conditions comprising: - first computation means for calculating the difference between the delivery pressure and the return pressure; - second computation means for calculating, during the advancing of the vehicle, an instantaneous first derivative as a function of the time of said pressure difference; - comparator means for comparing the instantaneous first derivative with a value of the first reference derivative; and - actuator means for commanding said solenoid valve to open when a deviation between the value of the instantaneous first derivative and the value of the first reference derivative occurs. - pressure detection means for detecting the pressure in the delivery branch and in the return branch and for outputting respective electric signals; - an emergency solenoid valve designed to be hydraulically connected to the delivery branch, on one side, and to the return branch on the other side; - a command and control unit in emergency conditions configured to receive said electric signals from said pressure detecting means and connected to said solenoid valve to switch the solenoid valve between an open position, in which it directly connects, in use, the delivery branch with the return branch, and a closed position in which it hydraulically isolates the delivery branch and the return branch; - first computation means for calculating the difference between the delivery pressure and the return pressure; - second computation means for calculating, during the advancing of the vehicle, an instantaneous first derivative as a function of the time of said pressure difference; - comparator means for comparing the instantaneous first derivative with a value of the first reference derivative; and - actuator means for commanding said solenoid valve to open when a deviation between the value of the instantaneous first derivative and the value of the first reference derivative occurs.
A substrate for a photolithographic mask comprising a coating deposited on a rear surface of the substrate, the coating comprising: a. at least one electrically conducting layer, wherein the at least one layer comprises at least one first layer comprising at least one metal and at least one second layer comprising at least one metal nitride, and wherein the at least one metal of the at least one first layer comprises nickel (Ni), chromium (Cr) or titanium (Ti); b. wherein a thickness of the at least one layer is smaller than 30 nm, preferably smaller than 20 nm, and most preferably smaller than 10 nm; c. wherein the at least one layer comprises an optical transmittance of more than 20 % in the wavelength range of 300 nm to 1100 nm; and d. wherein the least one metal nitride layer protects the underlying metal coating. a. at least one electrically conducting layer, wherein the at least one layer comprises at least one first layer comprising at least one metal and at least one second layer comprising at least one metal nitride, and wherein the at least one metal of the at least one first layer comprises nickel (Ni), chromium (Cr) or titanium (Ti); b. wherein a thickness of the at least one layer is smaller than 30 nm, preferably smaller than 20 nm, and most preferably smaller than 10 nm; c. wherein the at least one layer comprises an optical transmittance of more than 20 % in the wavelength range of 300 nm to 1100 nm; and d. wherein the least one metal nitride layer protects the underlying metal coating.
A method for the failsafe and lean ignition of a fuel gas-air mixture on a gas burner, which is mixed in a mixing device arranged upstream of the gas burner using a fuel gas flowing in along a fuel gas flow path and air flowing in along an air flow path, wherein a control valve provided along the fuel gas flow path comprises an actuator and a throttle element which can be moved by the actuator for the closed-loop control of a flow rate of the fuel gas flowing into the mixing device, wherein the actuator is moved into an actuator reference position in order to bring the throttle element into a throttle reference position, wherein a test is performed to determine whether the throttle element is in the throttle reference position when the actuator is in the actuator reference position, wherein the throttle element is moved by the actuator in a flow rate-increasing manner starting at a start time (tD) from the throttle reference position, wherein an ignition device for the ignition of the fuel gas-air mixture on the gas burner is activated, wherein the flow rate-increasing movement of the throttle element is stopped as soon as at least one of the following termination conditions occurs: • the actuator reaches a predetermined limit position (sA); • a differential pressure sensor for the acquisition of a pressure difference, which can be referred to as offset pressure, between a measuring site along the fuel gas flow path and a measuring site (p1, p0) along the air flow path acquires a predetermined limit pressure (pA); • an ignition sensor for detecting an ignition of the fuel gas-air mixture detects an ignition of the fuel gas-air mixture. • the actuator reaches a predetermined limit position (sA); • a differential pressure sensor for the acquisition of a pressure difference, which can be referred to as offset pressure, between a measuring site along the fuel gas flow path and a measuring site (p1, p0) along the air flow path acquires a predetermined limit pressure (pA); • an ignition sensor for detecting an ignition of the fuel gas-air mixture detects an ignition of the fuel gas-air mixture.
Method for the continuous ranking of competitors during a race of a slalom skiing type sports discipline, the competitor being provided with at least one gliding board, such as skis or a snowboard, the method being characterized in that it includes the following iterative steps: - a step of measuring the variation in the lateral angle of the gliding board about a predefined axis, - a step of detecting the moment when the angle passes through a predefined value, - a step of recording the competitor's run time corresponding to the detected moment, - a step of comparing the stored run time with those of the preceding competitors for the corresponding detected moment, and - a step of ranking the competitor with respect to the preceding competitors as a function of the run time of each competitor. - a step of measuring the variation in the lateral angle of the gliding board about a predefined axis, - a step of detecting the moment when the angle passes through a predefined value, - a step of recording the competitor's run time corresponding to the detected moment, - a step of comparing the stored run time with those of the preceding competitors for the corresponding detected moment, and - a step of ranking the competitor with respect to the preceding competitors as a function of the run time of each competitor.
An implant, comprising: a support member configured to provide support to a portion of the body of the patient, the support member defining an opening; a strap defining an opening and being configured to be coupled to the support member and to bodily tissue of a patient, the strap being configured to extend through the opening defined by the support member and the opening defined by the strap, wherein the strap includes a first retention member and a second retention member, the first retention member being configured to engage the support member to couple the strap to the support member, the second retention member being configured to engage bodily tissue of a patient to couple the strap to the bodily tissue, wherein the first retention member and the second retention member each include a set of tangs, wherein the strap includes a distal end portion and a proximal end portion, wherein the tangs are only located near the distal end portion and the proximal end portion of the strap. a support member configured to provide support to a portion of the body of the patient, the support member defining an opening; a strap defining an opening and being configured to be coupled to the support member and to bodily tissue of a patient, the strap being configured to extend through the opening defined by the support member and the opening defined by the strap, wherein the strap includes a first retention member and a second retention member, the first retention member being configured to engage the support member to couple the strap to the support member, the second retention member being configured to engage bodily tissue of a patient to couple the strap to the bodily tissue, wherein the first retention member and the second retention member each include a set of tangs, wherein the strap includes a distal end portion and a proximal end portion, wherein the tangs are only located near the distal end portion and the proximal end portion of the strap.
A golf ball comprising a core, a mid layer positioned outside the core, and a cover positioned outside the mid layer, wherein the core includes an inner core and an outer core positioned outside the inner core, the cover includes an inner layer cover and an outer layer cover positioned outside the inner layer cover, and when: a volume of the inner core is defined as Vc; a volume of the mid layer is defined as Vm; a Shore D hardness of the mid layer is defined as Hm; a volume of the inner layer cover is defined as Vinc; a Shore D hardness of the inner layer cover is defined as Hinc; a volume of the outer layer cover is defined as Vouc; a Shore D hardness of the outer layer cover is defined as Houc; and a volume of the entire ball is defined as V, the golf ball meets the following relational expressions (b) to (g): Hm > Hinc > Houc, Hm − Houc > 25, Vm > Vinc > Vouc, Vm + Vinc + Vouc / V < 0.30, Vm / Vouc > 1.50, and Vm * Hm / Vouc * Houc > 3.0, characterized in that: the golf ball meets the following relational expression (a): 0.02 ≤ Vc / V < 0.07.
Electrode for a battery which comprises a powder of particles comprising amorphous, micro- or nano-crystalline Silicon nitride, characterized in that said powder of particles comprises Silicon nitride (SiN x) in which the atomic ratio of Silicon to Nitrogen is in the range 1:0.1 to 1:0.9.
Energy storage assembly for a motor vehicle, comprising at least: - a traction battery for storing electrical energy, - a flexible pressure element filled with gas or liquid, which is arranged on the outside of the traction battery or on the inside of a cover component for the traction battery, wherein the gas or liquid is trapped inside the flexible pressure element by atmospheric pressure, - a pressure sensor (150, 151, 152) connected to the flexible pressure element, by means of which collision-induced pressure fluctuations in the flexible pressure element can be detected. - a traction battery for storing electrical energy, - a flexible pressure element filled with gas or liquid, which is arranged on the outside of the traction battery or on the inside of a cover component for the traction battery, wherein the gas or liquid is trapped inside the flexible pressure element by atmospheric pressure, - a pressure sensor (150, 151, 152) connected to the flexible pressure element, by means of which collision-induced pressure fluctuations in the flexible pressure element can be detected.
An isolated G-CSF polypeptide comprising a mutant peptide sequence, wherein the mutant peptide sequence encodes an O-linked glycosylation site that does not exist in a wild-type polypeptide corresponding to the isolated polypeptide, wherein the mutant peptide sequence is selected from the group consisting of MVTPLGP, MQTPLGP, MIATPLGP, MATPLGP, MPTQGAMPLGP, MVQTPLGP, MQSTPLGP, MGQTPLGP, MAPTSSSPLGP, and MAPTPLGPA, or wherein the mutant peptide sequence is selected from the group consisting of MTPTLGP, MTPTQLGP, MTPTSLGP, MTPTQGP, MTPTSSP, M 1 TPQTP, M 1 TPTGP, M 1 TPLTP, M 1 TPNTGP, MTPLGP, M 1 TPVTP, M 1 TPMVTP, and MT 1 P 2 TQGL 3 G 4 P 5 A 6 S 7, or wherein the mutant peptide sequence is selected from the group consisting of P 129 ATQPT, P 129 TLGPT, P 129 TQGPT, P 129 TSSPT, P 129 TQGAPT, P 129 NTGPT, PALQPTQT, P 129 ALTPT, P 129 MVTPT, P 129 ASSTPT, MAP 129 ATQPTQGAM, and MP 129 ATTQPTQGAM, or wherein the mutant peptide sequence is selected from the group consisting of LGIPTA P 61 LSSC, LGIPTQ P 61 LSSC, LGIPTQG P 61 LSSC, LGIPQT P 61 LSSC, LGIPTS P 61 LSSC, LGIPTS P 61 LSSC, LGIPTQP 61 LSSC, LGTPWAP 61 LSSC, LGTPFA P 61 LSSC, and SLGAP 58 TAP 61 LSS, or wherein the mutant peptide sequence is selected from the group consisting of RHLAQTP 175, RHLAGQTP 175, QP 175 TQGAMP, RHLAQTP 175 AM, QP 175 TSSAP, QP 175 TSSAP, QP 175 TQGAMP, QP 175 TQGAM, QP 175 TQGA, QP 175 TVM, QP 175 NTGP, and QP 175 QTLP, or wherein the mutant peptide sequence is selected from the group consisting of P 133 TQTAMP 139, P 133 TQGTMP, P 133 TQGTNP, P 133 TQGTLP, PALQP 133 TQTAMPA, P 129 TTQP, P 129 NTLP, P 129 TLQP, P 61 TSSC, P 61 TSSAC, P 61 FTP and LGSTLGI.
A User Equipment, UE (102, 1002, 1102, 1602), comprising: a processor; memory in electronic communication with the processor; instructions stored in the memory, the instructions being executable to: receive a radio resource control, RRC, message including a configuration to indicate a primary secondary cell, PSCell, for a second group among multiple groups, each of which is constituted by one or more serving cells; wherein a cell configured with a physical uplink control channel, PUCCH, which is included in a first group of the multiple groups is a primary cell, PCell, and a cell configured with a PUCCH, which is included in the second group of the multiple groups is the PSCell, and wherein one or more hybrid automatic repeat request acknowledgements, HARQ-ACKs, for the first group are mapped to the PUCCH on the PCell and one or more hybrid automatic repeat request acknowledgements, HARQ-ACKs, for the second group are mapped to the PUCCH on the PSCell. a processor; memory in electronic communication with the processor; instructions stored in the memory, the instructions being executable to: receive a radio resource control, RRC, message including a configuration to indicate a primary secondary cell, PSCell, for a second group among multiple groups, each of which is constituted by one or more serving cells; wherein a cell configured with a physical uplink control channel, PUCCH, which is included in a first group of the multiple groups is a primary cell, PCell, and a cell configured with a PUCCH, which is included in the second group of the multiple groups is the PSCell, and wherein one or more hybrid automatic repeat request acknowledgements, HARQ-ACKs, for the first group are mapped to the PUCCH on the PCell and one or more hybrid automatic repeat request acknowledgements, HARQ-ACKs, for the second group are mapped to the PUCCH on the PSCell. receive a radio resource control, RRC, message including a configuration to indicate a primary secondary cell, PSCell, for a second group among multiple groups, each of which is constituted by one or more serving cells; wherein a cell configured with a physical uplink control channel, PUCCH, which is included in a first group of the multiple groups is a primary cell, PCell, and a cell configured with a PUCCH, which is included in the second group of the multiple groups is the PSCell, and wherein one or more hybrid automatic repeat request acknowledgements, HARQ-ACKs, for the first group are mapped to the PUCCH on the PCell and one or more hybrid automatic repeat request acknowledgements, HARQ-ACKs, for the second group are mapped to the PUCCH on the PSCell.