mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: receiving, by a user equipment, UE, a radio resource control, RRC, reconfiguration message from a source base station, wherein the RRC reconfiguration message comprises a list of target cells for performing a conditional handover by the UE, and information of each target cell of the target cells which comprises i) a conditional handover command of the target cell generated by the target cell, ii) a first measurement configuration identifier that indicates a first execution condition for the UE to perform a conditional handover to the target cell, and iii) a second measurement configuration identifier that indicates a second execution condition for the UE to perform the conditional handover to the target cell; and performing, by the UE, the conditional handover according to the RRC reconfiguration message. receiving, by a user equipment, UE, a radio resource control, RRC, reconfiguration message from a source base station, wherein the RRC reconfiguration message comprises a list of target cells for performing a conditional handover by the UE, and information of each target cell of the target cells which comprises i) a conditional handover command of the target cell generated by the target cell, ii) a first measurement configuration identifier that indicates a first execution condition for the UE to perform a conditional handover to the target cell, and iii) a second measurement configuration identifier that indicates a second execution condition for the UE to perform the conditional handover to the target cell; and performing, by the UE, the conditional handover according to the RRC reconfiguration message.
Readout circuit structure, formed on a semi-conductor substrate of a first type, and intended to measure the charges received from a photodiode outside the substrate according to successive charge integration cycles, said structure comprising: • an injection diode formed in the substrate by a first forward biased PN junction comprising a first doped region of a second type of the substrate for receiving electric charges from said external photodiode , and configured for injecting into the substrate the charges received from the external photodiode , • a collecting diode formed in the substrate by a second PN junction comprising a second doped region of the second type buried in the substrate and able to collect in the substrate at least one portion of the charges injected by the injection diode and of accumulating these charges during an integration cycle, • a charge recovery structure , configured for recovering the charges accumulated in said collecting diode, • means for initializing the charge recovery structure at the end of each integration cycle, by bringing back the electric potential of said charge recovery structure to an initial potential, • in which there is no transistor connected between the first doped region and the second doped region , the first region and the second region being separated by the substrate . • an injection diode formed in the substrate by a first forward biased PN junction comprising a first doped region of a second type of the substrate for receiving electric charges from said external photodiode , and configured for injecting into the substrate the charges received from the external photodiode , • a collecting diode formed in the substrate by a second PN junction comprising a second doped region of the second type buried in the substrate and able to collect in the substrate at least one portion of the charges injected by the injection diode and of accumulating these charges during an integration cycle, • a charge recovery structure , configured for recovering the charges accumulated in said collecting diode, • means for initializing the charge recovery structure at the end of each integration cycle, by bringing back the electric potential of said charge recovery structure to an initial potential, • in which there is no transistor connected between the first doped region and the second doped region , the first region and the second region being separated by the substrate .
High-strength flat steel product suitable for a bake-hardening treatment, consisting of a steel which, in addition to iron and unavoidable impurities (in wt.%), consists of C: 0.1-0.5%, Si: 0.9-2.0%, Mn: 1.0-3.0%, Al: 0.02-1.5%, N: 0.001-0.008%, P: ≤ 0.02%, S: ≤ 0.005%, and optionally of one or more of the following elements Cr: 0.01-1.0%, Mo: 0.01-0.2%, B: 0.001-0.01%, and optionally of a total of 0.005-0.2% V, Ti and Nb, where the Ti content does not exceed 0.10%, wherein the flat steel product has a structure that consists of - not more than 15% by area of ferrite, - not more than 5% by area of bainite, - at least 5% by volume of retained austenite and - at least 80% by area of martensite, of which at least 75% by area is tempered martensite, wherein, based on the total proportion of martensite in the structure, this has a martensite lancet length of at most 7.5 μm and a martensite lancet width of at most 1000 nm for at least 90% of the martensite, measured as set out in the description, and wherein the flat steel product has a yield strength Rp02 of more than 700 MPa or a yield strength ReH of more than 700 MPa, a tensile strength Rm of 950-1500 MPa, an elongation A80 of 7-25% and a BH2 value, determined after preforming of 2% and tempering for 20 minutes at 170°C in accordance with DIN EN 10325:2006, of at least 80 MPa. C: 0.1-0.5%, Si: 0.9-2.0%, Mn: 1.0-3.0%, Al: 0.02-1.5%, N: 0.001-0.008%, P: ≤ 0.02%, S: ≤ 0.005%, and optionally of one or more of the following elements Cr: 0.01-1.0%, Mo: 0.01-0.2%, B: 0.001-0.01%, and optionally of a total of 0.005-0.2% V, Ti and Nb, where the Ti content does not exceed 0.10%, wherein the flat steel product has a structure that consists of - not more than 15% by area of ferrite, - not more than 5% by area of bainite, - at least 5% by volume of retained austenite and - at least 80% by area of martensite, of which at least 75% by area is tempered martensite, wherein, based on the total proportion of martensite in the structure, this has a martensite lancet length of at most 7.5 μm and a martensite lancet width of at most 1000 nm for at least 90% of the martensite, measured as set out in the description, and - not more than 15% by area of ferrite, - not more than 5% by area of bainite, - at least 5% by volume of retained austenite and - at least 80% by area of martensite, of which at least 75% by area is tempered martensite, wherein, based on the total proportion of martensite in the structure, this has a martensite lancet length of at most 7.5 μm and a martensite lancet width of at most 1000 nm for at least 90% of the martensite, measured as set out in the description, and wherein the flat steel product has a yield strength Rp02 of more than 700 MPa or a yield strength ReH of more than 700 MPa, a tensile strength Rm of 950-1500 MPa, an elongation A80 of 7-25% and a BH2 value, determined after preforming of 2% and tempering for 20 minutes at 170°C in accordance with DIN EN 10325:2006, of at least 80 MPa.
A layer for a multilayer heat exchanger, the layer comprising: a plurality of flow paths; a first end section comprising a plurality of flow path inlets and a plurality flow path outlets; a second end section comprising a turnaround section, wherein the plurality of flow paths extend from the flow path inlets in the first end section to the flow path outlets at the first end section via the turnaround section at the second end section, characterised by a first morphing section fluidly connected to the first end section; a second morphing section fluidly connected to the second end section; and a central section positioned between and fluidly connected to the first and second morphing sections; wherein in the first end section and the second end section the flow paths have a first cross section; wherein in the central section the flow paths have a second cross section; and wherein in the first and second morphing sections the cross section of the flow paths morphs between first cross section and the second cross section. a plurality of flow paths; a first end section comprising a plurality of flow path inlets and a plurality flow path outlets; a second end section comprising a turnaround section, wherein the plurality of flow paths extend from the flow path inlets in the first end section to the flow path outlets at the first end section via the turnaround section at the second end section, characterised by a first morphing section fluidly connected to the first end section; a second morphing section fluidly connected to the second end section; and a central section positioned between and fluidly connected to the first and second morphing sections; wherein in the first end section and the second end section the flow paths have a first cross section; wherein in the central section the flow paths have a second cross section; and wherein in the first and second morphing sections the cross section of the flow paths morphs between first cross section and the second cross section.
A method of plugging a well during plug and abandonment (P&A) operations, comprising: a) deploying a first tool downhole to remove or open or perforate both an inner tubular and exterior casing at a section of well to be plugged; b) deploying a second tool downhole, said second tool having a eutectic alloy as either pellets or a layered metal, storage for said eutectic alloy , a heater , and a sleeve for protecting said heater from said eutectic alloy ; c) heating said eutectic alloy with said heater to form a molten alloy; d) allowing said molten alloy to expand and solidify to form a cast-in-place metal plug that fills at least part of said section of well to be plugged; e) adding additional eutectic alloy to said well and repeating steps c-d until a predetermined height of said cast-in-place metal plug is formed; f) removing said heater but not said sleeve ; g) deploying or pouring a resin downhole on top of said cast-in-place metal plug ; and, h) curing said resin to form a resin plug , wherein said cured resin adheres to said cast-in-place metal plug , further wherein the cured resin covers said cast-in-place metal plug and said sleeve of said second tool ; and i) wherein said cast-in-place metal plug and said resin plug together form a single two-material plug. a) deploying a first tool downhole to remove or open or perforate both an inner tubular and exterior casing at a section of well to be plugged; b) deploying a second tool downhole, said second tool having a eutectic alloy as either pellets or a layered metal, storage for said eutectic alloy , a heater , and a sleeve for protecting said heater from said eutectic alloy ; c) heating said eutectic alloy with said heater to form a molten alloy; d) allowing said molten alloy to expand and solidify to form a cast-in-place metal plug that fills at least part of said section of well to be plugged; e) adding additional eutectic alloy to said well and repeating steps c-d until a predetermined height of said cast-in-place metal plug is formed; f) removing said heater but not said sleeve ; g) deploying or pouring a resin downhole on top of said cast-in-place metal plug ; and, h) curing said resin to form a resin plug , wherein said cured resin adheres to said cast-in-place metal plug , further wherein the cured resin covers said cast-in-place metal plug and said sleeve of said second tool ; and i) wherein said cast-in-place metal plug and said resin plug together form a single two-material plug.
A system for gap detection in an ablation line, comprising: a catheter including a plurality of microelectrodes and an electrode , the electrode configured as an ablation electrode, the catheter configured for placement along the ablation line at a tissue location; and a processing device comprising a pacing signal unit and a capture unit , the processing device in communication with the plurality of microelectrodes and the electrode , the processing device configured to: transmit, with the pacing signal unit , a pacing signal via a pair of microelectrodes in accordance with a pacing protocol; receive a capture signal via the electrode , in response to the pacing signal being transmitted through living tissue; determine, with the capture unit , whether a gap exists in the ablation line based on the received capture signal; and if a gap exists, cause ablation of the living tissue in the gap in the ablation line with the electrode without movement of the catheter . a catheter including a plurality of microelectrodes and an electrode , the electrode configured as an ablation electrode, the catheter configured for placement along the ablation line at a tissue location; and a processing device comprising a pacing signal unit and a capture unit , the processing device in communication with the plurality of microelectrodes and the electrode , the processing device configured to: transmit, with the pacing signal unit , a pacing signal via a pair of microelectrodes in accordance with a pacing protocol; receive a capture signal via the electrode , in response to the pacing signal being transmitted through living tissue; determine, with the capture unit , whether a gap exists in the ablation line based on the received capture signal; and if a gap exists, cause ablation of the living tissue in the gap in the ablation line with the electrode without movement of the catheter . transmit, with the pacing signal unit , a pacing signal via a pair of microelectrodes in accordance with a pacing protocol; receive a capture signal via the electrode , in response to the pacing signal being transmitted through living tissue; determine, with the capture unit , whether a gap exists in the ablation line based on the received capture signal; and if a gap exists, cause ablation of the living tissue in the gap in the ablation line with the electrode without movement of the catheter .
A porous body comprising a porous silicone substrate having communicating pores and a three-dimensional network silicone skeleton which forms the pores and which is formed by a copolymerization of a bifunctional alkoxysilane and a trifunctional alkoxysilane; and a polymeric cover material covering at least a part of a surface of the silicone skeleton, wherein the porous body is obtained by dipping the porous silicone substrate in a solution of a polymeric material for forming the polymeric cover material, and then taking the porous silicone substrate out of the solution, wherein the solution for forming the polymeric cover material contains the polymeric material in a concentration of 1% by weight or more and 3% by weight or less.
A method comprising: converting input power, received from a direct current power source , at input terminals of a power converter to output power at output terminals of the power converter; drawing the input power according to a maximum power point tracking algorithm, wherein the power converter comprises a control circuit ; and characterised by while drawing the input power according to the maximum power point tracking algorithm, varying, by the control circuit , the output power to present, for a time period, a reduced output power point and then to present a maximum output power point by adj usting the conversion efficiency of the power converter. converting input power, received from a direct current power source , at input terminals of a power converter to output power at output terminals of the power converter; drawing the input power according to a maximum power point tracking algorithm, wherein the power converter comprises a control circuit ; and characterised by while drawing the input power according to the maximum power point tracking algorithm, varying, by the control circuit , the output power to present, for a time period, a reduced output power point and then to present a maximum output power point by adj usting the conversion efficiency of the power converter.
A press comprising: (a) a tool including a punch ; (b) a frame ; (c) a manual actuator ; (d) a mechanical transmission operably moving the tool in a longitudinal direction relative to the frame due to movement of the manual actuator; (e) a switch ; (f) an abutment surface (g) an automatically powered actuator coupled to the punch; (h) a biasing member (273; 275; 293; 411; 457; 495) being compressible when the manual actuator is moved in an operating condition which causes the abutment surface to activate the switch , and the switch activation then operably causing the automatically powered actuator to advance the punch; and (i) the manual actuator being adapted for reverse movement to retract the tool even after the biasing member has been partially compressed to an intermediate position which is insufficient to cause activation of the switch , characterized in that the biasing member (273; 275; 293; 411; 457; 495) includes a spring which must be compressed with at least 221.41 N (50 pounds) of force before the abutment surface activates the switch . (a) a tool including a punch ; (b) a frame ; (c) a manual actuator ; (d) a mechanical transmission operably moving the tool in a longitudinal direction relative to the frame due to movement of the manual actuator; (e) a switch ; (f) an abutment surface (g) an automatically powered actuator coupled to the punch; (h) a biasing member (273; 275; 293; 411; 457; 495) being compressible when the manual actuator is moved in an operating condition which causes the abutment surface to activate the switch , and the switch activation then operably causing the automatically powered actuator to advance the punch; and (i) the manual actuator being adapted for reverse movement to retract the tool even after the biasing member has been partially compressed to an intermediate position which is insufficient to cause activation of the switch , characterized in that the biasing member (273; 275; 293; 411; 457; 495) includes a spring which must be compressed with at least 221.41 N (50 pounds) of force before the abutment surface activates the switch . (i) the manual actuator being adapted for reverse movement to retract the tool even after the biasing member has been partially compressed to an intermediate position which is insufficient to cause activation of the switch , characterized in that the biasing member (273; 275; 293; 411; 457; 495) includes a spring which must be compressed with at least 221.41 N (50 pounds) of force before the abutment surface activates the switch .
A disc brake for a motor vehicle, in particular a commercial vehicle, comprising a brake disc , a brake caliper and two brake pads movably guided on the brake caliper on both sides of the brake disc , a hold-down spring on each brake pad , a hold-down bracket (8 - 8 IV ) for pre-tensioning the hold-down springs against the respective brake pad , and a spreading spring which is designed to apply a spreading force in a direction of action between the brake pads and to move the brake pads away from one another, wherein the ends of the spreading spring are in direct contact with one of the hold-down springs , wherein the disc brake has a guide part (20 - 20′′′) which is designed to receive the spreading spring guided at least in portions in the direction of action of the spreading force, characterized in that the guide part (20' -20′′′) has at least one first guide pin (24 - 24") which is arranged on the hold-down bracket (8' - 8 IV ) and extends in a recess on the hold-down bracket (8' - 8 IV ). a brake disc , a brake caliper and two brake pads movably guided on the brake caliper on both sides of the brake disc , a hold-down spring on each brake pad , a hold-down bracket (8 - 8 IV ) for pre-tensioning the hold-down springs against the respective brake pad , and a spreading spring which is designed to apply a spreading force in a direction of action between the brake pads and to move the brake pads away from one another, wherein the ends of the spreading spring are in direct contact with one of the hold-down springs , wherein the disc brake has a guide part (20 - 20′′′) which is designed to receive the spreading spring guided at least in portions in the direction of action of the spreading force, characterized in that the guide part (20' -20′′′) has at least one first guide pin (24 - 24") which is arranged on the hold-down bracket (8' - 8 IV ) and extends in a recess on the hold-down bracket (8' - 8 IV ).
A device for coupling at least one eyewear lens to at least one nasal applique attachable to a user's nose which results in dilation of a nasal passageway, the device comprising: a base configured to be engageable with the at least one eyewear lens ; a first pivot unit coupled to the base and pivotable relative to the base about a first pivot axis; and a second pivot unit coupled to the base and pivotable relative to the base about a second pivot axis; the first pivot unit and the second pivot unit being configured to interact with at least one nasal applique to magnetically couple the first pivot unit and the second pivot unit to the at least one nasal applique , the magnetic coupling between the first pivot unit and the second pivot unit and the at least one nasal applique imparting a dilating force on the user's nose to dilate the nasal passageway when the at least one nasal applique is attached to the user's nose, said device being characterized by further comprising a guide member coupled to the first pivot unit and the second pivot unit , the guide member being moveable relative to the base , movement of the guide member relative to the base causing pivotal movement of the first pivot unit and the second pivot unit relative to the base , thereby adjusting the magnitude of the dilating force. a base configured to be engageable with the at least one eyewear lens ; a first pivot unit coupled to the base and pivotable relative to the base about a first pivot axis; and a second pivot unit coupled to the base and pivotable relative to the base about a second pivot axis; the first pivot unit and the second pivot unit being configured to interact with at least one nasal applique to magnetically couple the first pivot unit and the second pivot unit to the at least one nasal applique , the magnetic coupling between the first pivot unit and the second pivot unit and the at least one nasal applique imparting a dilating force on the user's nose to dilate the nasal passageway when the at least one nasal applique is attached to the user's nose, said device being characterized by further comprising a guide member coupled to the first pivot unit and the second pivot unit , the guide member being moveable relative to the base , movement of the guide member relative to the base causing pivotal movement of the first pivot unit and the second pivot unit relative to the base , thereby adjusting the magnitude of the dilating force.
A transparent laminate having a plurality of filmy members each configured to be formed on at least one side of a base with structures having protrusions and recesses whose pitch is equal to or less than visible light wavelength, wherein the filmy members are overlapped and at least secured at an end thereof, wherein the overlapped filmy members are provided with a space arranged between the structures facing each other, wherein the secured filmy member is jointed in a peelable manner with an adhesive layer arranged at least at an outer edge serving as the end, wherein the facing structures are not in contact with each other according to the thickness of the adhesive layer , and wherein the space is an air layer formed between the structures .