mhurhangee/patent-ind-claim-en huggingface dataset:
A sealing system for a gas turbine engine , comprising: a first surface disposed at a first rotationally stationary component of the gas turbine engine , the first surface extending radially relative to a gas turbine engine central axis; a second surface disposed at a second rotationally stationary component of the gas turbine engine , the second surface extending radially relative to the gas turbine engine central axis, and being spaced a dimension away from the first surface defining an axial gap through which a fluid can flow; characterized by at least two recesses , a first of the two recesses being formed in the first surface and a second of the two recesses being formed in the second surface , oriented such that the fluid flow through the axial gap crosses the at least two recesses , the recesses being configured such that the axial gap is enlarged at the recesses , the recesses being configured to dissipate mechanical energy of the fluid flow through the axial gap to thereby inhibit fluid flow through the axial gap ; wherein the first of the at least two recesses is positioned asymmetrically across the axial gap from the second of the two recesses defining an expansion chamber across the gap ; and wherein the fluid flow is contracted to the axial gap downstream from the second recess of the two recesses . a first surface disposed at a first rotationally stationary component of the gas turbine engine , the first surface extending radially relative to a gas turbine engine central axis; a second surface disposed at a second rotationally stationary component of the gas turbine engine , the second surface extending radially relative to the gas turbine engine central axis, and being spaced a dimension away from the first surface defining an axial gap through which a fluid can flow; characterized by at least two recesses , a first of the two recesses being formed in the first surface and a second of the two recesses being formed in the second surface , oriented such that the fluid flow through the axial gap crosses the at least two recesses , the recesses being configured such that the axial gap is enlarged at the recesses , the recesses being configured to dissipate mechanical energy of the fluid flow through the axial gap to thereby inhibit fluid flow through the axial gap ; wherein the first of the at least two recesses is positioned asymmetrically across the axial gap from the second of the two recesses defining an expansion chamber across the gap ; and wherein the fluid flow is contracted to the axial gap downstream from the second recess of the two recesses .
A display device comprising: a display panel ; and a corrugated panel configured to support the display panel , wherein the corrugated panel is disposed at a rear of the display panel and comprises a corrugated core disposed between a front skin and a rear skin ; a module cover configured to cover the display panel and the corrugated panel ; and a first adhesive member ; characterized in that the module cover comprises: a first body configured to cover a lateral side between a front surface of the display panel and a rear surface of the rear skin ; and a second body which extends from the first body and is disposed between the front skin and the display panel , and wherein the first adhesive member is attached to the front skin and the second body . a display panel ; and a corrugated panel configured to support the display panel , wherein the corrugated panel is disposed at a rear of the display panel and comprises a corrugated core disposed between a front skin and a rear skin ; a module cover configured to cover the display panel and the corrugated panel ; and a first adhesive member ; characterized in that the module cover comprises: a first body configured to cover a lateral side between a front surface of the display panel and a rear surface of the rear skin ; and a second body which extends from the first body and is disposed between the front skin and the display panel , and a first body configured to cover a lateral side between a front surface of the display panel and a rear surface of the rear skin ; and a second body which extends from the first body and is disposed between the front skin and the display panel , and wherein the first adhesive member is attached to the front skin and the second body .
An intraocular lens (IOL) comprising a clear optic and an actuator for actuating change in curvature in at least a portion of the clear optic, the clear optic comprising a polymer substrate (130, 140; 315, 316) on both sides of the actuator, wherein the actuator comprises pairs of negative and positive transparent electrodes and a stack of electroactive material layers (EAMs) , characterized in that the EAMs being interdigitated with the transparent electrodes to form a multimorph and being at least partially in contact with the transparent electrodes, and wherein change in curvature from a resting state towards an actuated state is formed by applying voltage between the transparent electrodes, wherein adjacent ones of the transparent electrodes of the stack of electroactive material layers (EAMs) with the interdigitated transparent electrodes are oppositely charged.
Inverter for an energy generating system, wherein the inverter comprises at least a first converter module and a second converter module for converting electrical power, wherein the converter modules in each case comprise: - a housing , - at least one power terminal , - a first DC link circuit terminal , - a capacitance connected to the first DC link circuit terminal and configured to stabilize a DC voltage present at the first DC link circuit terminal , and - a converter circuit comprising at least one power electronic semiconductor switch driven in a clocked manner, wherein the converter circuit of the first converter module is embodied as a DC-DC converter and the converter circuit of the second converter module is embodied as an inverter bridge, characterized in that the at least two converter modules each comprise a second DC link circuit terminal , which is connected to the capacitance and to the first DC link circuit terminal of the respective converter module , and that the at least two converter modules are connected to one another via a respective one of their DC link circuit terminals either directly or via connectors , such that the capacitances connected via the DC link circuit terminals form a common DC link circuit, wherein the inverter is configured to convert an electrical power of a direct current generator connectable to the power terminal of the first converter module by means of the converter circuit of the first converter module , which is embodied as a DC-DC converter, to a different direct voltage level; to feed the thus converted electrical power into the DC link circuit; to retrieve the electrical power from the DC link circuit by means of the converter circuit of the second converter module , which is embodied as a DC-AC converter; to convert the electrical power into an alternating current; and to feed said alternating current into an alternating voltage grid which is connectable to the power terminal of the second converter module . - a housing , - at least one power terminal , - a first DC link circuit terminal , - a capacitance connected to the first DC link circuit terminal and configured to stabilize a DC voltage present at the first DC link circuit terminal , and - a converter circuit comprising at least one power electronic semiconductor switch driven in a clocked manner,
A display device for representing a current rotational speed of a motor vehicle, in particular of a utility vehicle, comprising a display area and a control device which is coupled to the display area and has the purpose of controlling a display of information on the display area , wherein the control device is designed to change the representation (10; 40) of the rotational speed on the display area as a function of an operating state of a power take-off of the motor vehicle, characterized in that the control device is designed to represent in a visually highlighted fashion, when the power take-off is activated, a first region of a scale for displaying the current rotational speed, which region corresponds to a predetermined setpoint rotational speed range for the power take-off.
A porous carbon sheet comprising at least carbon fibers and having a thickness of 30 to 95 μm, a resistance to gas permeation of 0.5 to 8.8 Pa, and a tensile strength of 5 to 50 N/cm, wherein the total area of through-pores accounts for 7% to 40% of the area of the carbon sheet , which accounts for 100%, the total area of through-pores measured by the method in the description.
An electronic delay detonator logging control device , the device comprising: a logging mode operation unit configured to operate a logging mode when a controller is interconnected with a trunk line connected to a plurality of electronic delay detonators; a detonator detection signal transmission unit transmitting a detonator detection signal to the plurality of electronic delay detonators through the trunk line when the logging mode is operated; a detection reception response signal reception unit receiving a detonator detection reception response signal for a detonator detection signal transmitted from at least any one electronic delay detonator to which a log counter is not assigned among the plurality of electronic delay detonators; a log counter transmission unit issuing and transmitting the log counter to at least any one of the electronic delay detonators when the detonator detection reception response signal is received; a counter reception response signal reception unit receiving a counter reception response signal for a log counter reception transmitted from at least any one of the electronic delay detonators that receives and records the issued log counter; and a logging mode termination unit terminating the logging mode via user operation. a logging mode operation unit configured to operate a logging mode when a controller is interconnected with a trunk line connected to a plurality of electronic delay detonators; a detonator detection signal transmission unit transmitting a detonator detection signal to the plurality of electronic delay detonators through the trunk line when the logging mode is operated; a detection reception response signal reception unit receiving a detonator detection reception response signal for a detonator detection signal transmitted from at least any one electronic delay detonator to which a log counter is not assigned among the plurality of electronic delay detonators; a log counter transmission unit issuing and transmitting the log counter to at least any one of the electronic delay detonators when the detonator detection reception response signal is received; a counter reception response signal reception unit receiving a counter reception response signal for a log counter reception transmitted from at least any one of the electronic delay detonators that receives and records the issued log counter; and a logging mode termination unit terminating the logging mode via user operation.
Method for etching a silicon nitride-based layer comprising the following successive steps of: - modifying the silicon nitride (SiN)-based layer so as to form at least one modified region , the modification comprising at least one implantation of hydrogen (H)-based and/or helium (He)-based ions in the SiN-based layer ; - removing the at least one modified region ; characterised in that the removal of the at least one modified region comprises at least one step of plasma etching the at least one modified region using a chemistry comprising at least: ∘ at least one compound selected from fluorocarbon compounds (C x F z ) or hydrofluorocarbon compounds (C x H y F z ), and ∘ at least one compound selected from Si w Cl(2 w +2) and Si w F(2 w +2) ∘ at least one compound selected from oxygen or nitrogen. - modifying the silicon nitride (SiN)-based layer so as to form at least one modified region , the modification comprising at least one implantation of hydrogen (H)-based and/or helium (He)-based ions in the SiN-based layer ; - removing the at least one modified region ; ∘ at least one compound selected from fluorocarbon compounds (C x F z ) or hydrofluorocarbon compounds (C x H y F z ), and ∘ at least one compound selected from Si w Cl(2 w +2) and Si w F(2 w +2) ∘ at least one compound selected from oxygen or nitrogen.
Coextrusion tool for producing multi-layered, coextruded, tubular preforms from thermoplastic material, comprising at least: - a storage element with an internal storage space ; - a sleeve , wherein an annular storage space leading into an annular outlet channel is formed between the sleeve and the storage element , - and an extrusion head which is axially displaceable with respect to the storage element and comprises an annular piston , in which at least two core distribution elements are coaxially disposed, wherein a respective flow channel, which widens from an inflow opening to an annular distribution channel and from there, as frustoconical-ring channel , merges into a cylindrical-ring channel , is formed between the annular piston and the adjacent core distribution element and also between two respective core distribution elements , characterized in that - the annular distribution channel has an upper vertex , which is placed at the inflow opening and from which a respective branch of the annular distribution channel extends on either side of the core distribution element ; - the annular distribution channel drops with respect to a diameter plane to a lower vertex , which is in the frustoconical-ring channel and at which the two branches of the annular distribution channel meet. - a storage element with an internal storage space ; - a sleeve , wherein an annular storage space leading into an annular outlet channel is formed between the sleeve and the storage element , - and an extrusion head which is axially displaceable with respect to the storage element and comprises an annular piston , in which at least two core distribution elements are coaxially disposed, - the annular distribution channel has an upper vertex , which is placed at the inflow opening and from which a respective branch of the annular distribution channel extends on either side of the core distribution element ; - the annular distribution channel drops with respect to a diameter plane to a lower vertex , which is in the frustoconical-ring channel and at which the two branches of the annular distribution channel meet.
A method of making a waveguide transition between two waveguides, the waveguide transition comprising a waveguide taper, the method comprising: specifying multiple sets of parameter values for parameters characterizing the waveguide transition, wherein the multiple sets of parameter values comprise a set of nominal parameter values and a set of parameter values associated with process corners representing process variations from the nominal parameter values; computing a scattering rate as a function of waveguide width of the waveguide taper for each of the multiple sets of parameter values; determining an envelope of the scattering rates for the multiple sets of parameter values, wherein the envelope is a curve that provides an upper bound to all process cases collectively by determining, at each waveguide width, the maximum scattering rate across all process corners and linearly interpolating between local maxima across waveguide width; computing a non-linear taper profile of the waveguide taper based on the envelope; and fabricating the waveguide transition based on the computed non-linear taper profile. specifying multiple sets of parameter values for parameters characterizing the waveguide transition, wherein the multiple sets of parameter values comprise a set of nominal parameter values and a set of parameter values associated with process corners representing process variations from the nominal parameter values; computing a scattering rate as a function of waveguide width of the waveguide taper for each of the multiple sets of parameter values; determining an envelope of the scattering rates for the multiple sets of parameter values, wherein the envelope is a curve that provides an upper bound to all process cases collectively by determining, at each waveguide width, the maximum scattering rate across all process corners and linearly interpolating between local maxima across waveguide width; computing a non-linear taper profile of the waveguide taper based on the envelope; and fabricating the waveguide transition based on the computed non-linear taper profile.
A method in a network node implementing a Service Communication Proxy, SCP, function, comprising: receiving , from a first Network Function, NF, a request destined to a second NF, wherein the request comprises information on the second NF; redirecting the request to a third NF, wherein the redirected request comprises information on the third NF; and transmitting a response from the SCP to the first NF, wherein the response comprises the information on the third NF, wherein, the information on the third NF indicates an Application Programming Interface, API, root of the third NF; and characterized in that , wherein, if there is no Location header included in the response, the API root of the third NF is indicated by using a 3gpp-Sbi-Target-apiRoot header. receiving , from a first Network Function, NF, a request destined to a second NF, wherein the request comprises information on the second NF; redirecting the request to a third NF, wherein the redirected request comprises information on the third NF; and transmitting a response from the SCP to the first NF, wherein the response comprises the information on the third NF, wherein, the information on the third NF indicates an Application Programming Interface, API, root of the third NF; and characterized in that , wherein, if there is no Location header included in the response, the API root of the third NF is indicated by using a 3gpp-Sbi-Target-apiRoot header.
A miR-19, a precursor thereof, or an exogenous polynucleotide encoding the miR-19 or the precursor thereof, for use in treating a medical condition in which a low adrenaline or noradrenaline level is therapeutically beneficial in a subject in need thereof.
A low-pressure casting mold , comprising: at least an upper mold and a lower mold that form a cavity ; and sprue pieces (8, 9; 18, 19) having cylindrical shapes and disposed at different positions of the lower mold , wherein each of the sprue pieces (8, 9; 18, 19) comprises a sprue (8A, 9A; 18A, 19A) open to the cavity at an upper side and a basin (8B, 9B; 18B, 19B) under the sprue (8A, 9A; 18A, 19A), and the basin (8B, 9B; 18B, 19B) has different volume according to a position of each of the sprue pieces (8, 9; 18, 19) in the lower mold .
A chemical resistant polymer resin composition for an overhead console, the composition comprising: 20 to 40% by weight of a polyester resin including a residue of a dicarboxylic acid component containing terephthalic acid and a residue of a diol component containing 5 to 60 mol% of isosorbide, 5 to 80 mol% of cyclohexanedimethanol, and a residual amount of other diol compounds; 50 to 70% by weight of a polycarbonate; and 10 to 30% by weight of an unsaturated nitrile-aromatic vinyl-alkylacrylate graft copolymer, based on the total weight of the polyester resin, polycarbonate, and unsaturated nitrile-aromatic vinyl-alkylacrylate graft copolymer; and 0.1 to 10 parts by weight of a weather resistant additive, based on 100 parts by weight of the polyester resin, polycarbonate, and unsaturated nitrile-aromatic vinyl-alkylacrylate graft copolymer, wherein the weather resistant additive includes one or more selected from the group consisting of a benzotriazol-based compound, a benzophenone-based compound, a benzoxazine-based compound, a malonate-based compound, a triazine-based compound, and a hindered amine light stabilizer (HALS)-based compound. 20 to 40% by weight of a polyester resin including a residue of a dicarboxylic acid component containing terephthalic acid and a residue of a diol component containing 5 to 60 mol% of isosorbide, 5 to 80 mol% of cyclohexanedimethanol, and a residual amount of other diol compounds; 50 to 70% by weight of a polycarbonate; and 10 to 30% by weight of an unsaturated nitrile-aromatic vinyl-alkylacrylate graft copolymer, based on the total weight of the polyester resin, polycarbonate, and unsaturated nitrile-aromatic vinyl-alkylacrylate graft copolymer; and 0.1 to 10 parts by weight of a weather resistant additive, based on 100 parts by weight of the polyester resin, polycarbonate, and unsaturated nitrile-aromatic vinyl-alkylacrylate graft copolymer, wherein the weather resistant additive includes one or more selected from the group consisting of a benzotriazol-based compound, a benzophenone-based compound, a benzoxazine-based compound, a malonate-based compound, a triazine-based compound, and a hindered amine light stabilizer (HALS)-based compound.
A method of selecting a T cell receptor (TCR) comprising: (a) contacting a plurality of pMHC-oligonucleotide conjugate molecules to a plurality of T cells by performing a reaction in a plurality of vessels, wherein a vessel of the plurality of vessels comprises a single T cell from a sample comprising a plurality of T cells, and a vessel barcoded polynucleotide comprising a vessel barcode sequence, wherein the vessel further comprises at least one pMHC-oligonucleotide conjugate molecule that binds to a TCR of the single T cell; (b) attaching the vessel barcoded polynucleotide or complement thereof to (i) an oligonucleotide portion of a pMHC-oligonucleotide conjugate molecule in the vessel of the plurality of vessels, and (ii) a TCR polynucleotide from the single T cell of the plurality of T cells in the vessel; and (c) sequencing the oligonucleotide portion or a complement thereof and the TCR polynucleotide or a complement thereof, thereby generating sequence information. (a) contacting a plurality of pMHC-oligonucleotide conjugate molecules to a plurality of T cells by performing a reaction in a plurality of vessels, wherein a vessel of the plurality of vessels comprises a single T cell from a sample comprising a plurality of T cells, and a vessel barcoded polynucleotide comprising a vessel barcode sequence, wherein the vessel further comprises at least one pMHC-oligonucleotide conjugate molecule that binds to a TCR of the single T cell; (b) attaching the vessel barcoded polynucleotide or complement thereof to (i) an oligonucleotide portion of a pMHC-oligonucleotide conjugate molecule in the vessel of the plurality of vessels, and (ii) a TCR polynucleotide from the single T cell of the plurality of T cells in the vessel; and (i) an oligonucleotide portion of a pMHC-oligonucleotide conjugate molecule in the vessel of the plurality of vessels, and (ii) a TCR polynucleotide from the single T cell of the plurality of T cells in the vessel; and (c) sequencing the oligonucleotide portion or a complement thereof and the TCR polynucleotide or a complement thereof, thereby generating sequence information.