mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a pro-inflammatory stimulation reagent containing between 10 and 500 ng/mL interleukin IL-1β for reproducing in vitro the pathophysiology of atopic dermatitis and/or altering the barrier function in reconstructed skin or reconstructed epidermis which contains differentiated cells distributed in several layers, or in a skin explant, said pro-inflammatory stimulation reagent further comprising a TLR-2 receptor ligand selected from a peptidoglycan, lipoteichoic acid, a lipoprotein, a lipoarabinomannan, and zymosan, and/or a TLR-3 receptor ligand selected from poly (A:U) and poly I:C.
A method for surface preparation prior to adhesive bonding comprising: (a) providing a composite substrate comprising reinforcing fibers impregnated with a first curable matrix resin; (b) applying a surface treatment layer onto a surface of the composite substrate, said surface treatment layer comprising a second curable matrix resin different from the first matrix resin; (c) co-curing the composite substrate and the surface treatment layer until the composite substrate is fully cured but the surface treatment layer remains partially cured, wherein the second matrix resin is formulated to cure at a slower rate than the first matrix resin, and after co-curing (c), the surface treatment layer provides a bondable surface with chemically-active functional groups, the first and second matrix resins comprise different curing agents that are selected to affect curing at different rates, the first and second matrix resins comprise one or more epoxy resins, the curing agents for the first and second matrix resins are selected from the group consisting of: melamine and substituted melamine derivatives, polymercaptan, polyamide, aliphatic polyamine, aromatic polyamine derivatives, tertiary amine boron trifluoride complex, acid anhydride, imidazoles, aromatic polyamine, cyanoguanadine, phenol novolac, and the curing agent for the first matrix resin is selected to enable the first matrix resin to cure at a faster rate relative to that of the second matrix resin. (a) providing a composite substrate comprising reinforcing fibers impregnated with a first curable matrix resin; (b) applying a surface treatment layer onto a surface of the composite substrate, said surface treatment layer comprising a second curable matrix resin different from the first matrix resin; (c) co-curing the composite substrate and the surface treatment layer until the composite substrate is fully cured but the surface treatment layer remains partially cured,
An oscillator for a regulator of a timepiece mechanism comprising a frame , a rigid body and a mechanism for connecting the rigid body to the frame enabling oscillations of the rigid body relative to the frame , the connecting mechanism comprising at least one first and one second rigid parts (16, 18; 46), and first and second flexible elements (34, 36; 44, 48) in the form of angular sectors of rings, the first and second flexible elements (34, 36; 44, 48) being concentric, each of the first and second flexible elements (34, 36; 44, 48) connecting the first and second rigid parts (16, 18; 46) together, characterised in that the first and second flexible elements (34, 36; 44, 48) extend primarily in distinct, non-parallel planes.
An oral care device configured for placement in an oral cavity comprising: a flexible base substrate ; a flexible power source disposed on a side of the flexible base substrate ; a flexible light source disposed on the flexible base substrate or on the flexible power source and in electrical communication with the flexible power source ; and a removable release layer ; characterized in that the release layer is disposed such that removal of the release layer activates the flexible power source or closes a circuit between the flexible power source and the flexible light source . a flexible base substrate ; a flexible power source disposed on a side of the flexible base substrate ; a flexible light source disposed on the flexible base substrate or on the flexible power source and in electrical communication with the flexible power source ; and a removable release layer ; characterized in that the release layer is disposed such that removal of the release layer activates the flexible power source or closes a circuit between the flexible power source and the flexible light source .
A coating device comprising: a chamber; a work turning device that is housed in an inside of the chamber and includes at least one holder that holds at least one work and rotates the work about a predetermined rotation-axis, the work having an outer circumferential face on which a coating is to be formed; an evaporation source attached to the inside of the chamber and having an emission face from which particles come out as a material of a coating formed on the outer circumferential face of the work; a power source that supplies an electric driving output to the evaporation source to cause the particles to come out of the evaporation source; and a controller that controls the power source, while the work turning device rotates the work, to set the driving output supplied by the power source to the evaporation source in a particular period to an output higher than a reference output and an output in a period other than the particular period, the particular period being at least a portion of a period in which a particular portion of the outer circumferential face of the work faces the emission face of the evaporation source, the particular portion being where a coating thicker than the other portion of the outer circumferential face of the work is to be formed. a chamber; a work turning device that is housed in an inside of the chamber and includes at least one holder that holds at least one work and rotates the work about a predetermined rotation-axis, the work having an outer circumferential face on which a coating is to be formed; an evaporation source attached to the inside of the chamber and having an emission face from which particles come out as a material of a coating formed on the outer circumferential face of the work; a power source that supplies an electric driving output to the evaporation source to cause the particles to come out of the evaporation source; and a controller that controls the power source, while the work turning device rotates the work, to set the driving output supplied by the power source to the evaporation source in a particular period to an output higher than a reference output and an output in a period other than the particular period, the particular period being at least a portion of a period in which a particular portion of the outer circumferential face of the work faces the emission face of the evaporation source, the particular portion being where a coating thicker than the other portion of the outer circumferential face of the work is to be formed.
An aircraft sensor system comprising: a first sensor (90; 110; 430) configured to detect a parameter of an aircraft system;a first micro electro-mechanical-system (MEMS) (120, 122, 124, 126, 128; 410) disposed local to a first component within the aircraft system, the first MEMS (120, 122, 124, 126, 128; 410) being communicatively connected to a controller (92; 130; 420); and characterised by the controller (92; 130; 420) being configured to trigger in response to a corresponding parameter exceeding a threshold ; and by the controller (92; 130; 420) being connected to an output of the first sensor (90; 110; 430) and including a non-transitory memory storing instructions configured to cause the controller (92; 130; 420) to increase a sampling rate of the first sensor (90; 110; 430) to a sampling rate corresponding to the first component for at least a predetermined length of time, for example having a length in the range of 100-400 ms, in response to the first MEMS (120, 122, 124, 126, 128; 410) being triggered. a first sensor (90; 110; 430) configured to detect a parameter of an aircraft system;a first micro electro-mechanical-system (MEMS) (120, 122, 124, 126, 128; 410) disposed local to a first component within the aircraft system, the first MEMS (120, 122, 124, 126, 128; 410) being communicatively connected to a controller (92; 130; 420); and characterised by the controller (92; 130; 420) being configured to trigger in response to a corresponding parameter exceeding a threshold ; and by the controller (92; 130; 420) being connected to an output of the first sensor (90; 110; 430) and including a non-transitory memory storing instructions configured to cause the controller (92; 130; 420) to increase a sampling rate of the first sensor (90; 110; 430) to a sampling rate corresponding to the first component for at least a predetermined length of time, for example having a length in the range of 100-400 ms, in response to the first MEMS (120, 122, 124, 126, 128; 410) being triggered.
An apparatus for processing sperm, comprising: an upper chamber and a bottom chamber arranged vertically; a collection port connected to the upper chamber; an injection port connected to the bottom chamber; a porous layer placed at the interface between the upper and bottom chamber to allow particles communication between them and delay thermal equilibrium therebetween; and a temperature control unit means for maintaining the temperature of the upper chamber higher than that of the bottom chamber, wherein the temperature control unit comprises a heating source placed on top of the upper chamber to heat the upper chamber by contacting. an upper chamber and a bottom chamber arranged vertically; a collection port connected to the upper chamber; an injection port connected to the bottom chamber; a porous layer placed at the interface between the upper and bottom chamber to allow particles communication between them and delay thermal equilibrium therebetween; and a temperature control unit means for maintaining the temperature of the upper chamber higher than that of the bottom chamber, wherein the temperature control unit comprises a heating source placed on top of the upper chamber to heat the upper chamber by contacting.
A coated glass or glass ceramic substrate comprising a local or full-surface layer with haptic properties such that the layer has a haptically perceptible texture, wherein the texture of the substrate surface can be actively sensed through haptic perception by integrating all skin senses and depth sensitivity, wherein said layer comprises texturing inorganic and/or polysiloxane-based particles which are fixed on the substrate by a layer-forming material, wherein said particles cause protrusions on the layer and thus produce the haptically perceptible texture, and wherein the particles have a rounded, edgeless outer contour so as to bring about a velvety perception, and wherein good haptic properties are achieved when the PV value for a layer that includes edgeless spherical particles ranges from 4 to 10 μm, preferably from 6 to 10 μm, most preferably from 7.5 to 9.5 μm, wherein the PV value defines the mean height differential between the deepest point between two particles and the highest point on one of these particles.
A selective ACKR3 modulating peptide comprising amino acid sequence FGGX 1 MRRX 2 (SEQ ID NO: 1), wherein X 1 is F or W; X 2 is K, V or F; and the peptide has a length of at most 15 amino acids.
A cationic polymer resulting from the polymerization of: (a) a 1,ω-dibromoalkyl monomer; and (b) a ω,ω'-diaminoalkyl disulfide monomer, and optionally; (c) a 1,ω-diaminoalkyl monomer. (a) a 1,ω-dibromoalkyl monomer; and (b) a ω,ω'-diaminoalkyl disulfide monomer, and optionally; (c) a 1,ω-diaminoalkyl monomer.
Sidewall suitable for a gangway, the sidewall having • a first gangway end and • a second gangway end , said second gangway end being opposite the first gangway end and characterized by • a retractable rail that has a first rail end that is connected to the first gangway end and that has a second rail end opposite the first rail end , whereby the second rail end is connected to the second gangway end , whereby the retractable rail extends along a longitudinal axis (A) and • a cover attached to the rail and extending along the rail , whereby the cover has a flexible portion that extends from the rail into a direction perpendicular to the longitudinal axis (A). • a first gangway end and • a second gangway end , said second gangway end being opposite the first gangway end and • a retractable rail that has a first rail end that is connected to the first gangway end and that has a second rail end opposite the first rail end , whereby the second rail end is connected to the second gangway end , whereby the retractable rail extends along a longitudinal axis (A) and • a cover attached to the rail and extending along the rail , whereby the cover has a flexible portion that extends from the rail into a direction perpendicular to the longitudinal axis (A).
An imaging lens assembly having a positive total refractive power, the imaging lens assembly comprising in order from an object side to an image side: a first lens element with negative refractive power between 51% and 68% of the total refractive power; a second lens element with zero or positive refractive power between 0% and 5% of the total refractive power; a third lens element with positive refractive power between 75% and 110% of the total refractive power; a fourth lens element with negative refractive power between 42% and 61% of the total refractive power; a fifth lens element with positive refractive power between 91% and 112% of the total refractive power; and a sixth lens element with a negative refractive power between 38% and 97% of the total refractive power, characterized in that for dn/dT representing a change in refractive index (n) of a material with respect to temperature (T), evaluated at a temperature of 25°C, at a wavelength of 587.6 nm, the first lens element is formed from a material having a dn/dT less than -99×10 -6 /°C: the third lens element is formed from a material having a dn/dT greater than -95×10 -6 /°C; the fourth lens element is formed from a material having a dn/dT less than -118×10 -6 /°C; the fifth lens element is formed from a material having a dn/dT greater than -95×10 -6 /°C; and the sixth lens element is formed from a material having a dn/dT less than -118×10 -6 /°C. a first lens element with negative refractive power between 51% and 68% of the total refractive power; a second lens element with zero or positive refractive power between 0% and 5% of the total refractive power; a third lens element with positive refractive power between 75% and 110% of the total refractive power; a fourth lens element with negative refractive power between 42% and 61% of the total refractive power; a fifth lens element with positive refractive power between 91% and 112% of the total refractive power; and a sixth lens element with a negative refractive power between 38% and 97% of the total refractive power, characterized in that for dn/dT representing a change in refractive index (n) of a material with respect to temperature (T), evaluated at a temperature of 25°C, at a wavelength of 587.6 nm, the first lens element is formed from a material having a dn/dT less than -99×10 -6 /°C: the third lens element is formed from a material having a dn/dT greater than -95×10 -6 /°C; the fourth lens element is formed from a material having a dn/dT less than -118×10 -6 /°C; the fifth lens element is formed from a material having a dn/dT greater than -95×10 -6 /°C; and the sixth lens element is formed from a material having a dn/dT less than -118×10 -6 /°C. the third lens element is formed from a material having a dn/dT greater than -95×10 -6 /°C; the fourth lens element is formed from a material having a dn/dT less than -118×10 -6 /°C; the fifth lens element is formed from a material having a dn/dT greater than -95×10 -6 /°C; and the sixth lens element is formed from a material having a dn/dT less than -118×10 -6 /°C.
A system for assembling and installing a plurality of wire bundles, the system comprising: a transport tool having a wire bundle-receiving panel and at least one adjustable support ; the wire bundle-receiving panel including a first rack and a second rack , a support plate , and a first slide and a second slide , each mounted on the support plate and attached to the first rack and the second rack by a first pivot and a second pivot , respectively, whereby the first rack and the second rack pivot between open and closed positions on the support plate , and move toward and away from each other; and the at least one adjustable support including an upper component attached to the support plate , a base , and at least one actuator for selectively raising and lowering the upper portion and wire bundle-receiving panel. the wire bundle-receiving panel including a first rack and a second rack , a support plate , and a first slide and a second slide , each mounted on the support plate and attached to the first rack and the second rack by a first pivot and a second pivot , respectively, whereby the first rack and the second rack pivot between open and closed positions on the support plate , and move toward and away from each other; and a first rack and a second rack , a support plate , and a first slide and a second slide , each mounted on the support plate and attached to the first rack and the second rack by a first pivot and a second pivot , respectively, whereby the first rack and the second rack pivot between open and closed positions on the support plate , and move toward and away from each other; and the at least one adjustable support including an upper component attached to the support plate , a base , and at least one actuator for selectively raising and lowering the upper portion and wire bundle-receiving panel. an upper component attached to the support plate , a base , and at least one actuator for selectively raising and lowering the upper portion and wire bundle-receiving panel.
A braking arrangement for an electric motor, wherein the braking arrangement has - a magnet body - a ring winding - at least one bolt - a housing part with braking face - an armature disc - a brake lining carrier - a shaft , - at least one spring part , in particular a counter-spring, and - at least a first bush , wherein the housing part is connected to the magnet body by means of the bolt, in particular in a form-fit at least in the peripheral direction, wherein the first bush is accommodated in a second bush , in particular is pressed into the second bush , wherein the first bush is manufactured from a different material from the second bush , wherein a radial distance region covered by the armature disc contains, in particular comprises, a radial distance region covered by the second bush , wherein an axial region covered by the armature disc contains, in particular comprises, an axial region covered by the second bush or overlaps with it, characterised in that the spring part , which is supported on the housing part , presses the first bush and/or the second bush towards the magnet body , the brake lining carrier having internal gearing which is engaged with external gearing which is introduced into a driving element which is connected non-rotatably, in particular by means of a feather-key connection, to the shaft , in particular with the driving element being embodied as a ring part, the driving element having an inner driving element part and an outer driving element part and also an intermediate layer arranged radially between the inner and outer driving element parts. - a magnet body - a ring winding - at least one bolt - a housing part with braking face - an armature disc - a brake lining carrier - a shaft , - at least one spring part , in particular a counter-spring, and - at least a first bush , wherein the housing part is connected to the magnet body by means of the bolt, in particular in a form-fit at least in the peripheral direction, wherein the first bush is accommodated in a second bush , in particular is pressed into the second bush , wherein the first bush is manufactured from a different material from the second bush , wherein a radial distance region covered by the armature disc contains, in particular comprises, a radial distance region covered by the second bush , wherein an axial region covered by the armature disc contains, in particular comprises, an axial region covered by the second bush or overlaps with it, characterised in that the spring part , which is supported on the housing part , presses the first bush and/or the second bush towards the magnet body , the brake lining carrier having internal gearing which is engaged with external gearing which is introduced into a driving element which is connected non-rotatably, in particular by means of a feather-key connection, to the shaft , in particular with the driving element being embodied as a ring part, the driving element having an inner driving element part and an outer driving element part and also an intermediate layer arranged radially between the inner and outer driving element parts.
Use of delta-like ligand 1 protein or a nucleotide sequence coding for delta-like ligand 1 protein as a biomarker for the in vitro diagnosis of a severe infection.
A method , performed by a sending device, for sending signaling information, comprising: sending signaling information ; characterized in that , the signaling information comprises: information about a correspondence between a sequence parameter of a reference signal and a time domain symbol comprising the reference signal; wherein the reference signal comprises a demodulation reference signal or a measurement reference signal; wherein the sequence parameter comprises at least one of: a sequence group number or a sequence number; wherein the information about the correspondence between the sequence parameter of the reference signal and a time domain symbol comprising the reference signal comprises: information about whether the sequence parameter changes on R2 time domain symbols; wherein R2 is an integer; wherein R2 is equal to N, wherein N is a number of time domain symbols comprised by the signal in one time unit, and the signal is the reference signal corresponding to the signaling information. sending signaling information ; characterized in that , the signaling information comprises: information about a correspondence between a sequence parameter of a reference signal and a time domain symbol comprising the reference signal; wherein the reference signal comprises a demodulation reference signal or a measurement reference signal; wherein the sequence parameter comprises at least one of: a sequence group number or a sequence number; wherein the information about the correspondence between the sequence parameter of the reference signal and a time domain symbol comprising the reference signal comprises: information about whether the sequence parameter changes on R2 time domain symbols; wherein R2 is an integer; wherein R2 is equal to N, wherein N is a number of time domain symbols comprised by the signal in one time unit, and the signal is the reference signal corresponding to the signaling information. information about whether the sequence parameter changes on R2 time domain symbols; wherein R2 is an integer; wherein R2 is equal to N, wherein N is a number of time domain symbols comprised by the signal in one time unit, and the signal is the reference signal corresponding to the signaling information.