mhurhangee/patent-ind-claim-en huggingface dataset:
A vascular stent delivery system, comprising: a housing ; an outer cannula , disposed outside of the housing and coupled to a first end of the housing ; characterized by further comprising: a cleaning tube , coupled to a second end of the housing , a first end of the cleaning tube is disposed within the housing and a second end of the cleaning tube extends out from the housing ; an inner cannula , a part of the inner cannula is disposed within the housing , and a first end of the inner cannula is inserted into the outer cannula , and a second end of the inner cannula extends into a cavity of the cleaning tube from the first end of the cleaning tube ; a driving assembly , a part of the driving assembly is disposed within the housing and operably engaged with a part of the inner cannula disposed within the housing , the driving assembly is configured to drive the inner cannula to axially move in the outer cannula and the cleaning tube ; and an end of the second end of the inner cannula is configured to prevent the end of the second end of the inner cannula from scratching the inner wall of the cleaning tube . a housing ; an outer cannula , disposed outside of the housing and coupled to a first end of the housing ; characterized by further comprising: a cleaning tube , coupled to a second end of the housing , a first end of the cleaning tube is disposed within the housing and a second end of the cleaning tube extends out from the housing ; an inner cannula , a part of the inner cannula is disposed within the housing , and a first end of the inner cannula is inserted into the outer cannula , and a second end of the inner cannula extends into a cavity of the cleaning tube from the first end of the cleaning tube ; a driving assembly , a part of the driving assembly is disposed within the housing and operably engaged with a part of the inner cannula disposed within the housing , the driving assembly is configured to drive the inner cannula to axially move in the outer cannula and the cleaning tube ; and an end of the second end of the inner cannula is configured to prevent the end of the second end of the inner cannula from scratching the inner wall of the cleaning tube . a cleaning tube , coupled to a second end of the housing , a first end of the cleaning tube is disposed within the housing and a second end of the cleaning tube extends out from the housing ; an inner cannula , a part of the inner cannula is disposed within the housing , and a first end of the inner cannula is inserted into the outer cannula , and a second end of the inner cannula extends into a cavity of the cleaning tube from the first end of the cleaning tube ; a driving assembly , a part of the driving assembly is disposed within the housing and operably engaged with a part of the inner cannula disposed within the housing , the driving assembly is configured to drive the inner cannula to axially move in the outer cannula and the cleaning tube ; and an end of the second end of the inner cannula is configured to prevent the end of the second end of the inner cannula from scratching the inner wall of the cleaning tube .
Housing for at least one heat-releasing element , comprising: - a housing wall , - a holder which is joined to the housing wall for accommodating the at least one heat-releasing element , - a cooling body which is arranged on a side of the housing wall opposite the holder and is joined to the housing wall , characterized in that the housing wall , the holder and the cooling body are together present as a one-piece component, wherein the cooling body has at least one channel for a cooling medium and at least a subregion of the cooling body consists of a first thermoplastic polymer composition having a thermal conductivity determined in accordance with ASTM E1461-01 of ≥ 0.2 W/(m K), wherein the material of the housing additionally comprises a second thermoplastic polymer composition different from the first thermoplastic polymer composition, which is present in the regions of the housing in which the first thermoplastic polymer composition is not present. - a housing wall , - a holder which is joined to the housing wall for accommodating the at least one heat-releasing element , - a cooling body which is arranged on a side of the housing wall opposite the holder and is joined to the housing wall ,
A composition comprising: a. a PD-1 axis binding antagonist; and b. a compound selected from the group consisting of: 4-(1-(cyclohexylmethyl)-1H-benzo[d]imidazol-2-ylamino)-N-hydroxybenzamide, 4-(1-cyclohexyl-1H-benzo [d] imidazol-2-ylamino)-N-hydroxybenzamide, and 4-(1-cycloheptyl-1H-benzo[d]imidazol-2-ylamino)-N-hydroxybenzamide, wherein the PD-1 axis binding antagonist is a PD-1 binding antagonist, wherein the PD-1 binding antagonist is selected from the group consisting of: an antibody against PD-1, an antigen-binding fragment of the antibody against PD-1, and an immunoadhesin comprising an extracellular or PD-1 binding portion of PD-L1 or PD-L2 fused to a constant region that inhibits the binding of PD-1 to PD-L1, PD-L2 or both. a. a PD-1 axis binding antagonist; and b. a compound selected from the group consisting of: 4-(1-(cyclohexylmethyl)-1H-benzo[d]imidazol-2-ylamino)-N-hydroxybenzamide, 4-(1-cyclohexyl-1H-benzo [d] imidazol-2-ylamino)-N-hydroxybenzamide, and 4-(1-cycloheptyl-1H-benzo[d]imidazol-2-ylamino)-N-hydroxybenzamide, wherein the PD-1 axis binding antagonist is a PD-1 binding antagonist, wherein the PD-1 binding antagonist is selected from the group consisting of: an antibody against PD-1, an antigen-binding fragment of the antibody against PD-1, and an immunoadhesin comprising an extracellular or PD-1 binding portion of PD-L1 or PD-L2 fused to a constant region that inhibits the binding of PD-1 to PD-L1, PD-L2 or both.
An apparatus , comprising: a protective headgear ; an actuator element integrated within the protective headgear ; a sensor element attached on an inner surface of the protective headgear ; a processor element electronically coupled to the actuator element and the sensor element , wherein the processor element is configured to: cause the actuator element to generate a first ultrasonic wave, wherein the first ultrasonic wave is propagated in the protective headgear; receive a first output generated from the sensor element in response to the first ultrasonic wave generated by the actuator element , calculate an output difference by comparing the first output with a pre-determined value; determine whether the output difference satisfies a pre-determined threshold; and in response to determining that the output difference does not satisfy the pre-determined threshold, trigger a warning. a protective headgear ; an actuator element integrated within the protective headgear ; a sensor element attached on an inner surface of the protective headgear ; a processor element electronically coupled to the actuator element and the sensor element , wherein the processor element is configured to: cause the actuator element to generate a first ultrasonic wave, wherein the first ultrasonic wave is propagated in the protective headgear; receive a first output generated from the sensor element in response to the first ultrasonic wave generated by the actuator element , calculate an output difference by comparing the first output with a pre-determined value; determine whether the output difference satisfies a pre-determined threshold; and in response to determining that the output difference does not satisfy the pre-determined threshold, trigger a warning. cause the actuator element to generate a first ultrasonic wave, wherein the first ultrasonic wave is propagated in the protective headgear; receive a first output generated from the sensor element in response to the first ultrasonic wave generated by the actuator element , calculate an output difference by comparing the first output with a pre-determined value; determine whether the output difference satisfies a pre-determined threshold; and in response to determining that the output difference does not satisfy the pre-determined threshold, trigger a warning.
A display device comprising: a light guide plate comprising an incident end surface , a reflection surface , and an emission surface facing the reflection surface , wherein the light guide plate is configured to propagate light incident from the incident end surface and emit the light from the emission surface , the light guide plate further comprising a prism provided on the reflection surface and configured to reflect the light incident from the incident end surface ; a first light source configured to cause the light to be incident on the incident end surface of the light guide plate ; and a concealing plate that includes a light transmitter that is disposed on a side of the emission surface of the light guide plate and is configured to transmit the light emitted from the emission surface of the light guide plate , and a light shielding portion having a light transmittance lower than a light transmittance of the light transmitter , characterized in that the light guide plate has an inclined surface group formed by a plurality of inclined surfaces on a side end surface excluding the incident end surface of the light guide plate and a facing end surface facing the incident end surface , and and in that a line segment connecting a center of a side of each of the plurality of inclined surfaces and a center of the first light source , and the sides of the inclined surfaces are substantially perpendicular. a light guide plate comprising an incident end surface , a reflection surface , and an emission surface facing the reflection surface , wherein the light guide plate is configured to propagate light incident from the incident end surface and emit the light from the emission surface , the light guide plate further comprising a prism provided on the reflection surface and configured to reflect the light incident from the incident end surface ; a first light source configured to cause the light to be incident on the incident end surface of the light guide plate ; and a concealing plate that includes a light transmitter that is disposed on a side of the emission surface of the light guide plate and is configured to transmit the light emitted from the emission surface of the light guide plate , and a light shielding portion having a light transmittance lower than a light transmittance of the light transmitter , a light transmitter that is disposed on a side of the emission surface of the light guide plate and is configured to transmit the light emitted from the emission surface of the light guide plate , and a light shielding portion having a light transmittance lower than a light transmittance of the light transmitter , characterized in that the light guide plate has an inclined surface group formed by a plurality of inclined surfaces on a side end surface excluding the incident end surface of the light guide plate and a facing end surface facing the incident end surface , and and in that a line segment connecting a center of a side of each of the plurality of inclined surfaces and a center of the first light source , and the sides of the inclined surfaces are substantially perpendicular.
An apparatus , comprising: a display panel comprising an array of subpixels (202-208, 302-308) comprising a plurality of subpixel groups , wherein: the array of subpixels (202-208, 302-308) form a plurality of pixels (246- 248, 340-342); the number of the subpixels in the array is twice of the number of the plurality of pixels; each of the plurality of subpixel groups comprises a plurality of subpixel units (404-408) arranged adjacently along a horizontal direction or a vertical direction, and each of the plurality of subpixel units (404-408) comprises a plurality of subpixels in the same color arranged in a zigzag pattern such that, in each subpixel unit (404-408), a first plurality of subpixels are arranged along one diagonal direction from a turning subpixel located at a turning corner of the zigzag pattern, and that a second plurality of subpixels are arranged along another diagonal direction from the turning subpixel . the array of subpixels (202-208, 302-308) form a plurality of pixels (246- 248, 340-342); the number of the subpixels in the array is twice of the number of the plurality of pixels; each of the plurality of subpixel groups comprises a plurality of subpixel units (404-408) arranged adjacently along a horizontal direction or a vertical direction, and each of the plurality of subpixel units (404-408) comprises a plurality of subpixels in the same color arranged in a zigzag pattern such that, in each subpixel unit (404-408), a first plurality of subpixels are arranged along one diagonal direction from a turning subpixel located at a turning corner of the zigzag pattern, and that a second plurality of subpixels are arranged along another diagonal direction from the turning subpixel .
An internally cooled valve , comprising a valve body having a valve head and a valve stem , wherein the valve body comprises at least one cavity in which coolant is situated, wherein the coolant is a nanofluid , characterized in that the nanofluid is a ternary nanofluid comprising at least two of the following types of nanoparticles , namely titanium particles, nano diamonds, silicon carbide particles, beryllium particles, boron nitride particles and / or graphene particles as dispersed particles, and that the nanofluid further comprises a dispersing additive that prevents the nanoparticles from combining to nanoparticle aggregates. a valve body having a valve head and a valve stem , wherein the valve body comprises at least one cavity in which coolant is situated, wherein the coolant is a nanofluid , characterized in that the nanofluid is a ternary nanofluid comprising at least two of the following types of nanoparticles , namely titanium particles, nano diamonds, silicon carbide particles, beryllium particles, boron nitride particles and / or graphene particles as dispersed particles, and that the nanofluid further comprises a dispersing additive that prevents the nanoparticles from combining to nanoparticle aggregates.
A mobile device comprising: a processor; an input/output interface circuit coupled to the processor; a memory to store a biometric reference template, the biometric reference template comprising biometric reference information of a user; and a client authentication circuit to: transmit an initiation signal to an authentication device, wherein the initiation signal is to specify requirements of a protected environment of the authentication device that is to enforce a temporary storage of the biometric reference information; receive an attestation signal from the authentication device, the attestation signal including attestation information that attests to characteristics of the protected environment of the authentication device; evaluate the attestation information to determine whether the characteristics of the protected environment of the authentication device meet the requirements; and permit transmission of the biometric reference template to the authentication device in response to analysis of the attestation information. a processor; an input/output interface circuit coupled to the processor; a memory to store a biometric reference template, the biometric reference template comprising biometric reference information of a user; and a client authentication circuit to: transmit an initiation signal to an authentication device, wherein the initiation signal is to specify requirements of a protected environment of the authentication device that is to enforce a temporary storage of the biometric reference information; receive an attestation signal from the authentication device, the attestation signal including attestation information that attests to characteristics of the protected environment of the authentication device; evaluate the attestation information to determine whether the characteristics of the protected environment of the authentication device meet the requirements; and permit transmission of the biometric reference template to the authentication device in response to analysis of the attestation information. transmit an initiation signal to an authentication device, wherein the initiation signal is to specify requirements of a protected environment of the authentication device that is to enforce a temporary storage of the biometric reference information; receive an attestation signal from the authentication device, the attestation signal including attestation information that attests to characteristics of the protected environment of the authentication device; evaluate the attestation information to determine whether the characteristics of the protected environment of the authentication device meet the requirements; and permit transmission of the biometric reference template to the authentication device in response to analysis of the attestation information.
A receiving apparatus in a radio access network for receiving broadcast system information in the radio access network, the receiving apparatus comprising: a processor; computer-readable storage media; a receiver configured to: receive first system information including a master information block of a broadcast control logical channel via a broadcast transport channel, and receive second system information including a system information block of the broadcast control logical channel via a shared transport channel; wherein the processor, when executing software stored on the storage media, is configured to obtain timing information from the master information block received via the broadcast transport channel, wherein the receiver is configured to receive the system information block via the shared transport channel according to the timing information. a processor; computer-readable storage media; a receiver configured to: receive first system information including a master information block of a broadcast control logical channel via a broadcast transport channel, and receive second system information including a system information block of the broadcast control logical channel via a shared transport channel; receive first system information including a master information block of a broadcast control logical channel via a broadcast transport channel, and receive second system information including a system information block of the broadcast control logical channel via a shared transport channel; wherein the processor, when executing software stored on the storage media, is configured to obtain timing information from the master information block received via the broadcast transport channel, wherein the receiver is configured to receive the system information block via the shared transport channel according to the timing information.
A method for manufacturing a rubber composition for a tire, comprising the steps of: starting to knead a rubber component, a sulfur donor, and a sulfur atom-containing vulcanization accelerator together before kneading the rubber component with a filler; and then adding a filler to an obtained kneaded product and performing kneading at a kneading temperature of 120°C or higher, wherein the sulfur donor is a sulfur compound. starting to knead a rubber component, a sulfur donor, and a sulfur atom-containing vulcanization accelerator together before kneading the rubber component with a filler; and then adding a filler to an obtained kneaded product and performing kneading at a kneading temperature of 120°C or higher, wherein the sulfur donor is a sulfur compound.
A method performed by a network node controlling at least one network exposure function, NEF, node in a wireless communication system, the method comprising: receiving (S105, S125), from the at least one NEF node, a first message including information on an application programming interface, API, supported by the at least one NEF node; transmitting (S110, S130), to the at least one NEF node, a response to the first message to indicate that the API supported by the at least one NEF node is ascertained based on the information on the API, after storing the information on the API; receiving (S205, S245), from an API invoking node, a discover request message for an API; and transmitting (S275), to the API invoking node, a discover response message as a response to the discover request message, the discover response message including API information for the API, wherein the API information is associated with a first NEF node among the at least one NEF node and is identified among the stored information on the API, wherein the first NEF node is an entry node for an NEF node chaining associated with the API (S250), wherein a request for the API is delivered (S255) from the API invoking node to the first NEF node via the network node based on the identified API information associated with the first NEF node, and the request of the API is forwarded (S260) from the first NEF node to a second NEF node of the NEF node chaining, and wherein the second NEF node is connected to the first NEF node in the NEF node chaining. receiving (S105, S125), from the at least one NEF node, a first message including information on an application programming interface, API, supported by the at least one NEF node; transmitting (S110, S130), to the at least one NEF node, a response to the first message to indicate that the API supported by the at least one NEF node is ascertained based on the information on the API, after storing the information on the API; receiving (S205, S245), from an API invoking node, a discover request message for an API; and transmitting (S275), to the API invoking node, a discover response message as a response to the discover request message, the discover response message including API information for the API, wherein the API information is associated with a first NEF node among the at least one NEF node and is identified among the stored information on the API, wherein the first NEF node is an entry node for an NEF node chaining associated with the API (S250), wherein a request for the API is delivered (S255) from the API invoking node to the first NEF node via the network node based on the identified API information associated with the first NEF node, and the request of the API is forwarded (S260) from the first NEF node to a second NEF node of the NEF node chaining, and wherein the second NEF node is connected to the first NEF node in the NEF node chaining.