mhurhangee/ep-ind-claims huggingface dataset:
Multilayer conductive transparent electrode comprising: - a substrate layer, - a conductive layer comprising at least one optionally substituted polythiophene conductive polymer, and at least one hydrophobic adhesive polymer which has chemical compatibility with the optionally substituted polythiophene conductive polymer, wherein the conductive layer is in direct contact with the substrate layer, characterized in that the optionally substituted polythiophene conductive polymer has a weight proportion of between 10% and 65%, the hydrophobic adhesive polymer has a weight proportion of between 20% and 90% and said hydrophobic adhesive polymer has chemical compatibility with the optionally substituted polythiophene conductive polymer, such that said multilayer conductive transparent electrode has a coefficient of haze of less than or equal to 3%. - a substrate layer, - a conductive layer comprising at least one optionally substituted polythiophene conductive polymer, and at least one hydrophobic adhesive polymer which has chemical compatibility with the optionally substituted polythiophene conductive polymer,
A method for transmitting an uplink signal at a User Equipment, UE, in a wireless communication system, the method comprising: generating first uplink control information and second uplink control information; multiplexing the first uplink control information and the second uplink control information allocated to different uplink carriers and transmitting the multiplexed first and second control information on a predetermined single uplink channel by using a modulation order corresponding to a length of a bit stream that is generated by sequentially arranging bits for the first uplink control information and bits for the second uplink control information; and transmitting the multiplexed first uplink control information and the second uplink control information in one uplink carrier, wherein the first uplink control information is control information allocated to a first uplink control channel of a first uplink carrier and the second uplink control information is control information allocated to a second uplink control channel of a second uplink carrier, wherein the first uplink control information is an Acknowledgment, ACK, /Negative ACK, NACK, and the second uplink control information is periodic Channel Status Information, CSI, and mapping the first control information to a Most Significant Bit, MSB of the bit stream, when the first control information requires a lower propagation error rate than the second control information. generating first uplink control information and second uplink control information; multiplexing the first uplink control information and the second uplink control information allocated to different uplink carriers and transmitting the multiplexed first and second control information on a predetermined single uplink channel by using a modulation order corresponding to a length of a bit stream that is generated by sequentially arranging bits for the first uplink control information and bits for the second uplink control information; and transmitting the multiplexed first uplink control information and the second uplink control information in one uplink carrier, wherein the first uplink control information is control information allocated to a first uplink control channel of a first uplink carrier and the second uplink control information is control information allocated to a second uplink control channel of a second uplink carrier, wherein the first uplink control information is an Acknowledgment, ACK, /Negative ACK, NACK, and the second uplink control information is periodic Channel Status Information, CSI, and mapping the first control information to a Most Significant Bit, MSB of the bit stream, when the first control information requires a lower propagation error rate than the second control information.
A hydropneumatic valve comprising a hydraulic module and a pneumatic module, the pneumatic module comprising: - a first pneumatic chamber at low pressure, comprising a first pneumatic piston, and a second pneumatic chamber at high pressure, the two pneumatic chambers being separated from each other by a membrane, - a pushing element for acting on the membrane so as to let compressed air at high pressure pass from the second pneumatic chamber to the first pneumatic chamber, characterized in that the hydropneumatic valve further comprises a mechatronic module, comprising an electronic management module, an electromechanical module, itself comprising an electric motor and an activation element, and in that the pushing element can be activated independently by the hydraulic module and the electromechanical module. - a first pneumatic chamber at low pressure, comprising a first pneumatic piston, and a second pneumatic chamber at high pressure, the two pneumatic chambers being separated from each other by a membrane, - a pushing element for acting on the membrane so as to let compressed air at high pressure pass from the second pneumatic chamber to the first pneumatic chamber,
A shaft assembly, comprising: a shaft frame; an end effector comprising an end effector frame; an articulation joint, wherein said articulation joint rotatably connects said end effector frame to said shaft frame; an articulation driver (1440, 1450) configured to rotate said end effector about said articulation joint; and a first articulation lock selectively actuatable to engage said end effector frame and prevent said end effector frame from rotating relative to said shaft frame; characterised by a second articulation lock selectively actuatable to engage said articulation driver and prevent displacement of said articulation driver to prevent said end effector frame from rotating relative to said shaft frame. a shaft frame; an end effector comprising an end effector frame; an articulation joint, wherein said articulation joint rotatably connects said end effector frame to said shaft frame; an articulation driver (1440, 1450) configured to rotate said end effector about said articulation joint; and a first articulation lock selectively actuatable to engage said end effector frame and prevent said end effector frame from rotating relative to said shaft frame; characterised by a second articulation lock selectively actuatable to engage said articulation driver and prevent displacement of said articulation driver to prevent said end effector frame from rotating relative to said shaft frame.
Method for controlling the velocity of movement or the position of a driven element of an ultrasonic motor from a first adjustment state which is defined by at least one of a starting velocity or a starting position of the driven element into a second adjustment state which is defined by one or both of an end velocity of the driven element or an end position of the driven element, the ultrasonic motor comprising an ultrasonic actuator with at least one first and a second acoustic wave generator (3, 4), wherein one of the generators (3, 4) or both generators (3, 4) are subjected to an electrical excitation voltage, the method comprising the steps of: - starting from the first adjustment state of the driven element adjusting the frequency fu of the electrical excitation voltage such that it is equal to or close to a mechanical resonance frequency frm of the ultrasonic actuator; - changing the frequency fu of the electrical excitation voltage using a signal of at least one of a velocity sensor or a position sensor towards an anti-resonance frequency fa of the ultrasonic actuator until the second adjustment state is reached; - controlling the end velocity or the end position of the driven element with a predetermined accuracy by means of an antiphase frequency change. - starting from the first adjustment state of the driven element adjusting the frequency fu of the electrical excitation voltage such that it is equal to or close to a mechanical resonance frequency frm of the ultrasonic actuator; - changing the frequency fu of the electrical excitation voltage using a signal of at least one of a velocity sensor or a position sensor towards an anti-resonance frequency fa of the ultrasonic actuator until the second adjustment state is reached; - controlling the end velocity or the end position of the driven element with a predetermined accuracy by means of an antiphase frequency change.
Aluminium casting alloy, characterised in that the aluminium casting alloy consists of the following alloy elements: silicon: 9.0 wt% to < 10.5 wt%, nickel: 0.8 wt% to < 1.9 wt%, copper: 1.8 wt% to < 3.6 wt%, magnesium: 0.5 wt% to 1.8 wt%, iron: 0.9 wt% to < 1.4 wt%, zirconium and/or vanadium: in each case 0.05 to <= 0.3 or 0.2 wt%, manganese: up to <= 0.4 wt%, titanium: up to <= 0.15 wt%, phosphorus: up to <= 0.05 wt%, the rest consisting of aluminium and unavoidable impurities. silicon: 9.0 wt% to < 10.5 wt%, nickel: 0.8 wt% to < 1.9 wt%, copper: 1.8 wt% to < 3.6 wt%, magnesium: 0.5 wt% to 1.8 wt%, iron: 0.9 wt% to < 1.4 wt%, zirconium and/or vanadium: in each case 0.05 to <= 0.3 or 0.2 wt%, manganese: up to <= 0.4 wt%, titanium: up to <= 0.15 wt%, phosphorus: up to <= 0.05 wt%, the rest consisting of aluminium and unavoidable impurities.
Combination comprising a hyaluronic acid or a salt thereof having a weight average molecular weight between 60 and 120 kDa and a sulphated polysaccharide having a molecular weight between 5 and 25 kDa which is a sulphated fucan.
A swash plate compressor, comprising: a swash plate which rotates around a rotary shaft; a piston which moves forward and backward in response to the rotation of the swash plate and in which a hemispherical concave sliding surface is formed; and a shoe in which there are formed a flat end surface portion which comes into sliding contact with the swash plate and a spherical surface portion which comes into sliding contact with the sliding surface of the piston, wherein a columnar portion is formed between the spherical surface portion and the end surface portion in the shoe, and in a boundary area between the columnar portion and the spherical surface portion, there is formed a spherical-surface-portion side flange which protrudes radially outward and constitutes the spherical surface portion, and characterized in that in a boundary area between the end surface portion and the columnar portion, there is formed an end-surface-portion side flange which protrudes radially outward and comes into sliding contact with the swash plate. a swash plate which rotates around a rotary shaft; a piston which moves forward and backward in response to the rotation of the swash plate and in which a hemispherical concave sliding surface is formed; and a shoe in which there are formed a flat end surface portion which comes into sliding contact with the swash plate and a spherical surface portion which comes into sliding contact with the sliding surface of the piston, wherein a columnar portion is formed between the spherical surface portion and the end surface portion in the shoe, and in a boundary area between the columnar portion and the spherical surface portion, there is formed a spherical-surface-portion side flange which protrudes radially outward and constitutes the spherical surface portion, and characterized in that in a boundary area between the end surface portion and the columnar portion, there is formed an end-surface-portion side flange which protrudes radially outward and comes into sliding contact with the swash plate.
An ankle prosthesis or orthosis for a human ankle comprising a first body, a second body and an articulated joint between said bodies (2,3), the articulated joint allowing the rotation of said bodies (2,3) with respect to one another, an elastic element mounted between the bodies (2,3), characterised in that the prosthesis or orthosis comprises a passive mechanical converting mechanism comprising a third body arranged movably with respect to the first body, the elastic element more particularly arranged between the third body and the second body, the mechanical converting mechanism arranged for converting an angular change between the first body and the second body into a change of load on the elastic element, the prosthesis or orthosis further comprising ratio adapting means (35,36) interacting with the mechanical converting mechanism arranged for modifying the conversion ratio by which the change of load on the elastic element is performed.
A method for introducing genetic modifications at different loci of a primary T-cell, comprising the sequential steps of: a) Subjecting said primary T-cell to a first electroporation step to introduce at least a first sequence-specific reagent into said T-cell; b) Cultivating said primary T-cell thereby enabling said first sequence-specific reagent to modify its genome at a first locus, said first locus encoding a receptor protein or cell surface antigen, c) Subjecting said modified primary T-cell to at least a second electroporation step, to introduce at least a second sequence-specific reagent into said cell, d) Cultivating and expanding said primary T-cell thereby enabling said second sequence-specific reagent to permanently reduce or prevent the expression of the protein encoded at said second locus, said second locus encoding a protein selected from PD1, CTLA4, PPP2CA, PPP2CB, PTPN6, PTPN22, LAG3, HAVCR2, BTLA, CD160, TIGIT, CD96, CRTAM, LAIR1, SIGLEC7, SIGLEC9, CD244, TNFRSF10B, TNFRSF10A, CASP8, CASP10, CASP3, CASP6, CASP7, FADD, FAS, TGFBRII, TGFRBRI, SMAD2, SMAD3, SMAD4, SMAD10, SKI, SKIL, TGIF1, IL10RA, IL10RB, HMOX2, IL6R, IL6ST, EIF2AK4, CSK, PAG1, SIT1, FOXP3, PRDM1, BATF, GUCY1A2, GUCY1A3, GUCY1B2, GUCY1B3, dCK, GR, GGH and HPRT, wherein the primary T-cell is cultivated in step b) from 48 hours to 72 hours. a) Subjecting said primary T-cell to a first electroporation step to introduce at least a first sequence-specific reagent into said T-cell; b) Cultivating said primary T-cell thereby enabling said first sequence-specific reagent to modify its genome at a first locus, said first locus encoding a receptor protein or cell surface antigen, c) Subjecting said modified primary T-cell to at least a second electroporation step, to introduce at least a second sequence-specific reagent into said cell, d) Cultivating and expanding said primary T-cell thereby enabling said second sequence-specific reagent to permanently reduce or prevent the expression of the protein encoded at said second locus, said second locus encoding a protein selected from PD1, CTLA4, PPP2CA, PPP2CB, PTPN6, PTPN22, LAG3, HAVCR2, BTLA, CD160, TIGIT, CD96, CRTAM, LAIR1, SIGLEC7, SIGLEC9, CD244, TNFRSF10B, TNFRSF10A, CASP8, CASP10, CASP3, CASP6, CASP7, FADD, FAS, TGFBRII, TGFRBRI, SMAD2, SMAD3, SMAD4, SMAD10, SKI, SKIL, TGIF1, IL10RA, IL10RB, HMOX2, IL6R, IL6ST, EIF2AK4, CSK, PAG1, SIT1, FOXP3, PRDM1, BATF, GUCY1A2, GUCY1A3, GUCY1B2, GUCY1B3, dCK, GR, GGH and HPRT,
A medical apparatus comprising a transmission cable, the transmission cable comprising, therein: a first optical fiber configured to transmit an optical signal; a second optical fiber configured to transmit the optical signal; and a first optical connector configured to connect the first optical fiber and the second optical fiber; and an E/O converter to which a first end of the first optical fiber is connected, the E/O converter being configured to convert an electric signal into the optical signal; wherein the first optical connector comprises a first ferrule and a second ferrule; wherein the first ferrule is provided at an other end of the first optical fiber and the second ferrule is provided at a first end of the second optical fiber, such that the first optical fiber and the second optical fiber are optically connected via the first and second ferrule; wherein an other end of the second optical fiber is connected to a second optical connector configured to connect the second optical fiber and a third optical fiber; and wherein the second optical connector comprises a third ferrule and a fourth ferrule; and the third ferrule is provided at an other end of the second optical fiber and the fourth ferrule is provided at a first end of the third optical fiber, such that the second optical fiber and the third optical fiber are optically connected via the third and fourth ferrule. a first optical fiber configured to transmit an optical signal; a second optical fiber configured to transmit the optical signal; and a first optical connector configured to connect the first optical fiber and the second optical fiber; and an E/O converter to which a first end of the first optical fiber is connected, the E/O converter being configured to convert an electric signal into the optical signal; wherein the first optical connector comprises a first ferrule and a second ferrule; wherein the first ferrule is provided at an other end of the first optical fiber and the second ferrule is provided at a first end of the second optical fiber, such that the first optical fiber and the second optical fiber are optically connected via the first and second ferrule; wherein an other end of the second optical fiber is connected to a second optical connector configured to connect the second optical fiber and a third optical fiber; and wherein the second optical connector comprises a third ferrule and a fourth ferrule; and the third ferrule is provided at an other end of the second optical fiber and the fourth ferrule is provided at a first end of the third optical fiber, such that the second optical fiber and the third optical fiber are optically connected via the third and fourth ferrule.
A target radio access network, RAN, node associated with a second network, comprising: at least one memory; and at least one processor coupled to the at least one memory and configured to: receive, directly from a core network, core network information about a handover of a radio terminal from a first network to the second network; control communication of the radio terminal based on the core network information; and transfer, in response to receiving the core network information, a handover command message on a direct interface with a source RAN node associated with the first network, characterized in that; the core network information includes slice information relating to a network slice in the second network to which the radio terminal is to be connected. at least one memory; and at least one processor coupled to the at least one memory and configured to: receive, directly from a core network, core network information about a handover of a radio terminal from a first network to the second network; control communication of the radio terminal based on the core network information; and transfer, in response to receiving the core network information, a handover command message on a direct interface with a source RAN node associated with the first network, characterized in that; receive, directly from a core network, core network information about a handover of a radio terminal from a first network to the second network; control communication of the radio terminal based on the core network information; and transfer, in response to receiving the core network information, a handover command message on a direct interface with a source RAN node associated with the first network, characterized in that; the core network information includes slice information relating to a network slice in the second network to which the radio terminal is to be connected.
A functional safety, FS, watchdog timer circuit (111, 161) for a computing device (102, 152) of a frequency converter (101, 151) controlling a motor (118, 168), the FS watchdog timer (111, 161) circuit being configured to perform: triggering a safe state of the frequency converter (101, 151) in response to a timer of the FS watchdog timer circuit (111, 161) expiring; resetting the timer in response to receiving a first refresh signal from the computing device (102, 152) running FS software (108, 158) using non-inverted logic; and resetting the timer in response to receiving a second refresh signal from the computing device (102, 152) running the FS software (108, 158) using inverted logic. triggering a safe state of the frequency converter (101, 151) in response to a timer of the FS watchdog timer circuit (111, 161) expiring; resetting the timer in response to receiving a first refresh signal from the computing device (102, 152) running FS software (108, 158) using non-inverted logic; and resetting the timer in response to receiving a second refresh signal from the computing device (102, 152) running the FS software (108, 158) using inverted logic.
A holographic display system for a portable electronic device, the display system comprising: a case configured to receive the portable electronic device; a projector coupled to the case by a first hinge element, the projector including a projector screen for generating images; and a reflective element coupled to the projector by a second hinge element, the reflective element being oriented to reflect light from the images in order to create holographic images perceptible to a user of the portable electronic device. a case configured to receive the portable electronic device; a projector coupled to the case by a first hinge element, the projector including a projector screen for generating images; and a reflective element coupled to the projector by a second hinge element, the reflective element being oriented to reflect light from the images in order to create holographic images perceptible to a user of the portable electronic device.
Method for monitoring the status of an apparatus by measuring an analogue signal (xa(t)) which is continuous in terms of time and value and represents a vibration of the apparatus, wherein the analogue signal (xa(t)), at scanning times (ts) within a measuring interval, is converted into a digital signal (xd[k]) with an analogue-digital converter, wherein the analogue-digital converter is operated within a measuring range, wherein in the event that the analogue signal (xa(t)) exceeds the measuring range, signal portions of the analogue signal (xa(t)) which extend beyond the measuring range are cut in the digital signal (xd[k]), wherein a spectral analysis is then applied to the digital signal (xd[k]) in order to determine which frequency portions (fi) the analogue signal (xa(t)) comprises in a frequency spectrum, and to conclude a malfunction of the apparatus on the basis of a comparison with the occurring frequency portions (fi) and known damage frequencies (fs), wherein in the event that at a scanning time (ts) the analogue signal (xa(t)) which extends beyond the measuring range is cut in the digital signal (xd[k]), this event is detected, characterised in that this event is incremented in a counter as a number (NSat), wherein a signal quality is provided as a quotient from the number (NSat) relating to an overall scanning number within the measuring interval, and the signal quality is used to assess whether the known damage frequencies (fs) can still be identified from the determined frequency portions (fi) of the frequency spectrum, although additional overcontrol portions (fk) occur in the frequency spectrum as a result of possibly cut signal portions.
A resin composition comprising two types of ethylene-vinyl alcohol copolymers and a zinc salt of higher fatty acid, wherein difference of content of ethylene unit (ΔEt) between the two types of ethylene-vinyl alcohol copolymers is from 10 to 25 mol%, wherein the content of the zinc salt of higher fatty acid is from 50 to 800 ppm, based on the total content of the two types of ethylene-vinyl alcohol copolymers, and wherein the higher fatty acid is a fatty acid having from 8 to 30 carbon atoms.
A recombinant binding protein comprising an ankyrin repeat domain and a polyethylene glycol moiety of at least 5 kDa molecular weight, wherein said ankyrin repeat domain binds VEGF-A165 with a Kd below 10 -9 M and inhibits VEGF-A165 binding to VEGFR-2, and wherein said ankyrin repeat domain corresponds to amino acids 1 to 126 of SEQ ID NO:3.