mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of non-intrusively enforcing security during federated single sign-on, SSO, authentication without modifying a trust relationship between a service provider, SP, and an identity provider, IDP, the method including: establishing the trust relationship between the SP and the IDP by configuring a SSO-unified resource locator, URL, and a public key of the IDP at the SP and configuring an assertion consumer service, ACS-URL, of the SP at the IDP; generating an assertion at the IDP when a user logs into the SP, identifying the SP's ACS-URL in the generated assertion, and digitally signing the generated assertion using an IDP-certificate; configuring the IDP to encrypt the signed assertion using a proxy-public key of an assertion proxy and to forward the encrypted assertion to a proxy-URL of the assertion proxy instead of the SP's ACS-URL; decrypting the encrypted assertion at the assertion proxy with a complementary proxy-private key and forwarding the decrypted assertion to an ACS of the SP using the SP's ACS-URL identified in the decrypted assertion; and preserving the trust relationship between the SP and the IDP by validating the decrypted assertion at the SP using the IDP's public key to establish a federated SSO authenticated session through the assertion proxy. establishing the trust relationship between the SP and the IDP by configuring a SSO-unified resource locator, URL, and a public key of the IDP at the SP and configuring an assertion consumer service, ACS-URL, of the SP at the IDP; generating an assertion at the IDP when a user logs into the SP, identifying the SP's ACS-URL in the generated assertion, and digitally signing the generated assertion using an IDP-certificate; configuring the IDP to encrypt the signed assertion using a proxy-public key of an assertion proxy and to forward the encrypted assertion to a proxy-URL of the assertion proxy instead of the SP's ACS-URL; decrypting the encrypted assertion at the assertion proxy with a complementary proxy-private key and forwarding the decrypted assertion to an ACS of the SP using the SP's ACS-URL identified in the decrypted assertion; and preserving the trust relationship between the SP and the IDP by validating the decrypted assertion at the SP using the IDP's public key to establish a federated SSO authenticated session through the assertion proxy.
A tube joint , comprising: a first member having a bore defining an inner diameter ; and a second member with a first outer surface defining a first outer diameter having a plurality of helical protrusions extending radially from the first outer diameter , a second outer surface on each of the plurality of protrusions collectively defining a second outer diameter, wherein the second diameter larger than the inner diameter by an amount sufficient to center and retain the second member within the bore of the first member ; wherein two of the helical protrusions are circumferentially spaced apart from one another by a helical bottom land surface , characterised in that two of the helical protrusions are axially spaced apart from one another by a circumferential bottom land surface, wherein the first helical bottom land surface and the circumferential bottom land surface are arranged on a common diameter. a first member having a bore defining an inner diameter ; and a second member with a first outer surface defining a first outer diameter having a plurality of helical protrusions extending radially from the first outer diameter , a second outer surface on each of the plurality of protrusions collectively defining a second outer diameter, wherein the second diameter larger than the inner diameter by an amount sufficient to center and retain the second member within the bore of the first member ; wherein two of the helical protrusions are circumferentially spaced apart from one another by a helical bottom land surface , characterised in that two of the helical protrusions are axially spaced apart from one another by a circumferential bottom land surface, wherein the first helical bottom land surface and the circumferential bottom land surface are arranged on a common diameter.
Method for the denitrification of carbon monoxide (CO) and flue gases (A) which contain gaseous organic substances and are formed during cement clinker production, by selective catalytic reduction of the nitrogen oxides (NOx), the flue gases (A) being heated to a reaction temperature (T R ) of from 160°C to 500°C, prior to the catalytic reduction, by heat being exchanged with the recovered residual heat of the denitrified flue gases (A), characterised in that the heat transfer losses from the heat exchange are compensated for by regenerative postcombustion of the carbon monoxide (CO) and the gaseous organic substances in the flue gases (A), external heat energy being supplied in order to start up the denitrification of the flue gases (A) such that external energy only needs to be supplied during start-up.
Tradipitant for use in treating pruritus and/or atopic dermatitis in an individual by achieving and maintaining a tradipitant plasma concentration of 175 ng/mL or greater throughout a duration of treatment in the individual being treated, such use comprising: internal administration to the individual of tradipitant in an amount of 170 mg/day.
A method for producing 1,2-dichloro-3,3,3-trifluoropropene by fluorinating 1,1,2,3,3-pentachloropropene by a reaction with a fluorinating agent, the method being characterized in that hydrogen fluoride is used as the fluorinating agent, and the reaction is conducted in a liquid phase.
An electronic device, comprising: a display ; a metal middle frame , and a printed circuit board with an antenna support; wherein the metal middle frame is disposed in between the display and the printed circuit board ; a rear cover , wherein the rear cover is made of a first insulating material; a feeding unit , wherein the feeding unit is fixed on the antenna support, and the feeding unit is a feeding support antenna; a first coupling unit coupled to the feeding unit to generate resonances of a first plurality of frequency bands, wherein the first coupling unit is disposed on the rear cover , the first coupling unit comprises a first end and a second end, the first end and the second end are open, the feeding unit and the first coupling unit are coupled along a first direction (Z), wherein the first direction (Z) is perpendicular to the plane (X-Y) where the display or the rear cover is located; a second coupling unit coupled to the feeding unit to generate resonances of a second plurality of frequency bands, wherein the second coupling unit is disposed in the metal middle frame . a display ; a metal middle frame , and a printed circuit board with an antenna support; wherein the metal middle frame is disposed in between the display and the printed circuit board ; a rear cover , wherein the rear cover is made of a first insulating material; a feeding unit , wherein the feeding unit is fixed on the antenna support, and the feeding unit is a feeding support antenna; a first coupling unit coupled to the feeding unit to generate resonances of a first plurality of frequency bands, wherein the first coupling unit is disposed on the rear cover , the first coupling unit comprises a first end and a second end, the first end and the second end are open, the feeding unit and the first coupling unit are coupled along a first direction (Z), wherein the first direction (Z) is perpendicular to the plane (X-Y) where the display or the rear cover is located; a second coupling unit coupled to the feeding unit to generate resonances of a second plurality of frequency bands, wherein the second coupling unit is disposed in the metal middle frame .
A method for managing data packets (MAC PDU tx , RLC PDU tx ) transmitted by a first user equipment to be received by a second user equipment through a radio network, the radio network comprising an evolved Node B, eNB, , the method comprising having the evolved Node B, eNB, configured for: receiving data packets (MAC PDU tx ; RLC PDU tx ) transmitted by the first user equipment; for each data packet, checking whether the data packet comprises a request for a data packet tunneling (TUN, LCID); for each data packet comprising a request for data packet tunneling, providing the data packet to a relay protocol entity at a Radio Link Control protocol layer , the relay protocol entity being configured for: generating at least one tunneling data packet (RLC PDU eNB ; 705, 710), said generating at least one tunneling data packet comprises inserting at least a portion of the transmitted data packet into the at least one tunneling data packet, and transmitting the tunneling data packet to the second user equipment characterized in that said transmitting the tunneling data packet to the second user equipment comprises directly forwarding the tunneling data packet to the second user equipment without passing it to higher protocol layers being higher than the Radio Link Control protocol layer. receiving data packets (MAC PDU tx ; RLC PDU tx ) transmitted by the first user equipment; for each data packet, checking whether the data packet comprises a request for a data packet tunneling (TUN, LCID); for each data packet comprising a request for data packet tunneling, providing the data packet to a relay protocol entity at a Radio Link Control protocol layer , the relay protocol entity being configured for: generating at least one tunneling data packet (RLC PDU eNB ; 705, 710), said generating at least one tunneling data packet comprises inserting at least a portion of the transmitted data packet into the at least one tunneling data packet, and transmitting the tunneling data packet to the second user equipment characterized in that generating at least one tunneling data packet (RLC PDU eNB ; 705, 710), said generating at least one tunneling data packet comprises inserting at least a portion of the transmitted data packet into the at least one tunneling data packet, and transmitting the tunneling data packet to the second user equipment characterized in that said transmitting the tunneling data packet to the second user equipment comprises directly forwarding the tunneling data packet to the second user equipment without passing it to higher protocol layers being higher than the Radio Link Control protocol layer.
A base station apparatus that is configured to and/or programmed to communicate with a terminal apparatus , the base station apparatus comprising: a transmitter configured to and/or programmed to transmit an Enhanced Physical Downlink Control CHannel, EPDCCH, in an EPDCCH region, wherein physical resource block pairs corresponding to the EPDCCH region are indicated by higher layers, the EPDCCH is transmitted using one or a plurality of enhanced control channel elements, the enhanced control channel element consists of a plurality of enhanced resource element groups in one physical resource block pair in a case that the enhanced control channel element is subject to a localized mapping, the enhanced control channel element consists of a plurality of enhanced resource element groups in a plurality of physical resource block pairs in a case that the enhanced control channel element is subject to a distributed mapping, in a case of localized mapping, an EPDCCH UE-specific search space monitored by the terminal apparatus at an aggregation level is defined by a plurality of EPDCCH candidates, n-th EPDCCH candidate and (n+1)-th EPDCCH candidate in the plurality of EPDCCH candidates correspond to enhanced control channel elements in different physical resource block pairs. a transmitter configured to and/or programmed to transmit an Enhanced Physical Downlink Control CHannel, EPDCCH, in an EPDCCH region, wherein physical resource block pairs corresponding to the EPDCCH region are indicated by higher layers, the EPDCCH is transmitted using one or a plurality of enhanced control channel elements, the enhanced control channel element consists of a plurality of enhanced resource element groups in one physical resource block pair in a case that the enhanced control channel element is subject to a localized mapping, the enhanced control channel element consists of a plurality of enhanced resource element groups in a plurality of physical resource block pairs in a case that the enhanced control channel element is subject to a distributed mapping, in a case of localized mapping, an EPDCCH UE-specific search space monitored by the terminal apparatus at an aggregation level is defined by a plurality of EPDCCH candidates, n-th EPDCCH candidate and (n+1)-th EPDCCH candidate in the plurality of EPDCCH candidates correspond to enhanced control channel elements in different physical resource block pairs.
An absorbable iron-based alloy implantable medical device, comprising: a substrate of an iron-based alloy or pure iron, and further comprising a complex body, wherein the complex body comprises a complexing agent, characterized in that the complex body is disposed on the surface of or inside the substrate of an iron-based alloy or pure iron, and in a physiological solution, the substrate reacts with the complexing agent to generate a water-soluble iron complex which has a solubility greater than or equal to 10 mg/L in the physiological solution, wherein the complexing agent is a polydentate ligand containing at least two coordination groups selected from a sulfo group and a carbonyl group, the sulfo group consisting of sulfosalicylic acid and the carbonyl group consisting of oxalic acid, tartaric acid, malic acid, succinic acid, oxaloacetic acid, fumaric acid, maleic acid, citric acid, nitrilotriacetic acid, diethylene triamine penta(carboxylic acid), alginic acid, glutamic acid, aspartic acid, ornithine, lysine, potassium citrate, calcium citrate, acetylsalicylic acid, polyaspartic acid, polyglutamic acid, poly-ornithine, polylysine, and polymaleic anhydride. a substrate of an iron-based alloy or pure iron, and further comprising a complex body, wherein the complex body comprises a complexing agent, characterized in that the complex body is disposed on the surface of or inside the substrate of an iron-based alloy or pure iron, and in a physiological solution, the substrate reacts with the complexing agent to generate a water-soluble iron complex which has a solubility greater than or equal to 10 mg/L in the physiological solution, wherein the complexing agent is a polydentate ligand containing at least two coordination groups selected from a sulfo group and a carbonyl group, the sulfo group consisting of sulfosalicylic acid and the carbonyl group consisting of oxalic acid, tartaric acid, malic acid, succinic acid, oxaloacetic acid, fumaric acid, maleic acid, citric acid, nitrilotriacetic acid, diethylene triamine penta(carboxylic acid), alginic acid, glutamic acid, aspartic acid, ornithine, lysine, potassium citrate, calcium citrate, acetylsalicylic acid, polyaspartic acid, polyglutamic acid, poly-ornithine, polylysine, and polymaleic anhydride.
A method of operating a communications device, the method comprising: monitoring to receive a signal in a first communications band, wherein the first communication band is one of a plurality of WAN communications bands, the method characterized by further comprising: if no signal having a signal power level over a threshold level is received in a predetermined period of time from said first communications band, selecting a corresponding communications band which corresponds to said first communications band, said selected corresponding communications band being selected for use in communicating a peer to peer signal, wherein: said first communications band is a WAN downlink band; said corresponding communications band is an uplink frequency band; if a signal is detected in said first communications band having a power level exceeding the threshold, monitoring a second band out of said plurality of communications bands; and the method further comprises selecting said second band out of said plurality of communications band, the second band being other than said first communications band, for peer to peer signaling. if no signal having a signal power level over a threshold level is received in a predetermined period of time from said first communications band, selecting a corresponding communications band which corresponds to said first communications band, said selected corresponding communications band being selected for use in communicating a peer to peer signal, wherein: said first communications band is a WAN downlink band; said corresponding communications band is an uplink frequency band; said first communications band is a WAN downlink band; said corresponding communications band is an uplink frequency band; if a signal is detected in said first communications band having a power level exceeding the threshold, monitoring a second band out of said plurality of communications bands; and the method further comprises selecting said second band out of said plurality of communications band, the second band being other than said first communications band, for peer to peer signaling.
Vitrectomy device with a laser light source and a vitrectomy needle comprising a hollow needle made of metal, in particular titanium, with a distal end for insertion into the vitreous body of an eye for performing a vitrectomy, and comprising a laser light guide guided in the hollow needle to the distal end with a light exit surface oriented towards the distal end , wherein a cavity is formed in the hollow needle in the region of the light-emitting surface and the axially inwardly facing surface of the distal end and the wall of the hollow needle in the region of the cavity has an aperture extending radially with respect to the central axis (M) of the hollow needle , wherein the vitrectomy needle , in particular the hollow needle , has a straight section at the proximal end , wherein the central axis (M) defines a central axis (Z) in the region of the straight section , and wherein the central axis (M) of the hollow needle is spaced apart from the central axis (Z) by a predetermined minimum radial distance (R) in the region of the aperture , wherein the laser light source is a pulse laser and is set up to generate laser pulses with a pulse frequency of 40 Hz to 60 Hz and a pulse energy in the range from 0.5 to 3 mJ, so that the laser pulses emitted in the interior of the hollow needle at the light exit surface of the laser light guide generate shock waves in the region of the cavity and the aperture which exit through the aperture and accordingly shatter the glass body material.
A method for a UE, comprising: receiving a configuration, from a network node, indicating that a first 2-step Random Access, in the following also referred to as RA, for small data shares Random Access Channel, in the following also referred to as RACH, occasion/s of other RA , wherein RACH occasion/s of the first 2-step RA for small data are not configured separately; and determining whether the first 2-step RA for small data shares RACH occasion/s of a second 2-step RA or a 4-step RA , wherein the UE determines whether the first 2-step RA for small data shares RACH occasion/s of the second 2-step RA or the 4-step RA based on a first parameter or indication explicitly indicating RACH occasion/s of which RA amongst the second 2-step RA and the 4-step RA the first 2-step RA for small data uses or shares or based on whether a second parameter is present or absent. receiving a configuration, from a network node, indicating that a first 2-step Random Access, in the following also referred to as RA, for small data shares Random Access Channel, in the following also referred to as RACH, occasion/s of other RA , wherein RACH occasion/s of the first 2-step RA for small data are not configured separately; and determining whether the first 2-step RA for small data shares RACH occasion/s of a second 2-step RA or a 4-step RA , wherein the UE determines whether the first 2-step RA for small data shares RACH occasion/s of the second 2-step RA or the 4-step RA based on a first parameter or indication explicitly indicating RACH occasion/s of which RA amongst the second 2-step RA and the 4-step RA the first 2-step RA for small data uses or shares or based on whether a second parameter is present or absent.
A system for dosing a pharmaceutical formulation comprising: a vessel for storing a pharmaceutical formulation; a recirculation system comprising a density flow meter fluidly connected to the vessel and a recirculation pump fluidly connected to the density flow meter and the vessel, wherein the recirculation pump is configured to displace the pharmaceutical formulation from the vessel through the density flow meter and the density flow meter is configured to measure a density of the pharmaceutical formulation; characterized in : at least one displacement pump fluidly connected to the recirculation system, wherein the at least one displacement pump is configured to displace the pharmaceutical formulation from the recirculation system and into preformed molds, wherein the at least one displacement pump is configured to stop displacing the pharmaceutical formulation from the recirculation system when the density of the pharmaceutical formulation measured by the density flow meter is below a predetermined threshold. a vessel for storing a pharmaceutical formulation; a recirculation system comprising a density flow meter fluidly connected to the vessel and a recirculation pump fluidly connected to the density flow meter and the vessel, wherein the recirculation pump is configured to displace the pharmaceutical formulation from the vessel through the density flow meter and the density flow meter is configured to measure a density of the pharmaceutical formulation; characterized in : at least one displacement pump fluidly connected to the recirculation system, wherein the at least one displacement pump is configured to displace the pharmaceutical formulation from the recirculation system and into preformed molds, wherein the at least one displacement pump is configured to stop displacing the pharmaceutical formulation from the recirculation system when the density of the pharmaceutical formulation measured by the density flow meter is below a predetermined threshold. at least one displacement pump fluidly connected to the recirculation system, wherein the at least one displacement pump is configured to displace the pharmaceutical formulation from the recirculation system and into preformed molds, wherein the at least one displacement pump is configured to stop displacing the pharmaceutical formulation from the recirculation system when the density of the pharmaceutical formulation measured by the density flow meter is below a predetermined threshold.
A continuous composite surface suitable for a burner surface, obtainable by the method comprising the steps of i) providing a dispersion comprising a. ceramic fibers; b. at least one polymeric first binder; and c. a solvent; ii) suctioning said dispersion through a frame to obtain a nonwoven layer comprising said ceramic fibers and said at least one polymeric first binder, wherein said frame has no protrusions; iii) heating said nonwoven layer obtained in step (ii) at a temperature high enough to decompose said at least one polymeric first binder from said nonwoven layer to obtain a nonwoven fabric; and iv) coating by vapor deposition the nonwoven fabric obtained in step (iii) with a second binder to obtain a continuous composite surface. i) providing a dispersion comprising a. ceramic fibers; b. at least one polymeric first binder; and c. a solvent; a. ceramic fibers; b. at least one polymeric first binder; and c. a solvent; ii) suctioning said dispersion through a frame to obtain a nonwoven layer comprising said ceramic fibers and said at least one polymeric first binder, wherein said frame has no protrusions; iii) heating said nonwoven layer obtained in step (ii) at a temperature high enough to decompose said at least one polymeric first binder from said nonwoven layer to obtain a nonwoven fabric; and iv) coating by vapor deposition the nonwoven fabric obtained in step (iii) with a second binder to obtain a continuous composite surface.