mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical instrument, comprising: a housing ; an endoscopic portion extending distally from the housing and defining a first longitudinal axis (A-A); a drive motor disposed at least partially within the housing ; a drive tube disposed in mechanical cooperation with the drive motor , the drive tube being rotatable about a drive tube axis (C-C) extending therethrough; a firing rod disposed in mechanical cooperation with the drive tube , at least a portion of the firing rod being translatable with respect to the drive tube ; an end effector disposed adjacent a distal portion of the endoscopic portion , the end effector being in mechanical cooperation with the firing rod so that the firing rod drives a surgical function of the end effector ; and two indicators (320a;320b) disposed on the firing rod , wherein the two indicators (320a;320b) are operable to help determine the speed of firing rod and the location of firing rod with respect to drive tube and/or housing ; wherein a distal portion of the firing rod is rotatable with respect to the housing , and wherein a proximal portion of the firing rod is not rotatable with respect to the housing ; and wherein the two indicators (320a;320b) are disposed on the portion of the firing rod that is not rotatable with respect to the housing . a housing ; an endoscopic portion extending distally from the housing and defining a first longitudinal axis (A-A); a drive motor disposed at least partially within the housing ; a drive tube disposed in mechanical cooperation with the drive motor , the drive tube being rotatable about a drive tube axis (C-C) extending therethrough; a firing rod disposed in mechanical cooperation with the drive tube , at least a portion of the firing rod being translatable with respect to the drive tube ; an end effector disposed adjacent a distal portion of the endoscopic portion , the end effector being in mechanical cooperation with the firing rod so that the firing rod drives a surgical function of the end effector ; and two indicators (320a;320b) disposed on the firing rod , wherein the two indicators (320a;320b) are operable to help determine the speed of firing rod and the location of firing rod with respect to drive tube and/or housing ; wherein a distal portion of the firing rod is rotatable with respect to the housing , and wherein a proximal portion of the firing rod is not rotatable with respect to the housing ; and wherein the two indicators (320a;320b) are disposed on the portion of the firing rod that is not rotatable with respect to the housing .
A positive air pressure delivery device , comprising: a housing comprising: an inhalation inlet ; an inhalation outlet ; and an interior cavity in fluid communication with the inhalation inlet and outlet a pressurized fluid inlet comprising an outlet orifice in fluid communication with the interior cavity between the inhalation inlet and outlet; characterized in that the housing comprises a sound reducer baffle having a convex dome surface positioned downstream of and facing the outlet orifice in a spaced apart relationship therewith. an inhalation inlet ; an inhalation outlet ; and an interior cavity in fluid communication with the inhalation inlet and outlet a pressurized fluid inlet comprising an outlet orifice in fluid communication with the interior cavity between the inhalation inlet and outlet; characterized in that the housing comprises a sound reducer baffle having a convex dome surface positioned downstream of and facing the outlet orifice in a spaced apart relationship therewith.
Tool holder having a tool receptacle, provided with a sleeve portion with a receiving opening for a tool , having a chuck and having a pull-out prevention means for the tool, wherein, when the tool is clamped in place fixedly in terms of torque, the tool holder prevents axial tool movements of the tool relative to the tool receptacle, characterized in that the pull-out prevention means has a blocking groove, preferably a plurality of blocking grooves that are arranged in an equiangular manner with respect to one another, by way of which a blocking element provided on the cylinder surface of the tool shank is able to be received in a form-fitting manner in the chuck of the tool receptacle, and the at least one blocking groove, starting from the end side, facing a tool , of the tool receptacle, has a different blocking groove profile, and in that the pull-out prevention means contains a device that is configured in such a way that a tool that is clamped in place is held within the tool receptacle in a play-free manner by at least one force-exerting element (30; 32, 33), wherein the at least one force-exerting element comes to bear on the end face of a tool shank that is clamped in place.
A vehicle control method, comprising: obtaining, by a second terminal device, second biometric information of a second user; generating, by the second terminal device, a second key based on the second biometric information and identifier information of the second terminal device; sending, by the second terminal device, the second key to a first terminal device of a first user; obtaining, by the second terminal device, authorization information from the first terminal device, wherein the authorization information is generated based on a first key and the second key, and the first key is generated based on first biometric information of the first user and identifier information of the first terminal device; generating, by the second terminal device, second verification information based on the authorization information, and generating third verification information based on the second key; and sending, by the second terminal device, the second verification information and the third verification information to an in-vehicle device, wherein the in-vehicle device is configured to: receive the second key, verify the third verification information based on the second key, verify the second verification information based on a preset digital vehicle key and the second key, and if the verification succeeds, control a vehicle to start; and the digital vehicle key is obtained based on the first biometric information of the first user and the identifier information of the first terminal device. obtaining, by a second terminal device, second biometric information of a second user; generating, by the second terminal device, a second key based on the second biometric information and identifier information of the second terminal device; sending, by the second terminal device, the second key to a first terminal device of a first user; obtaining, by the second terminal device, authorization information from the first terminal device, wherein the authorization information is generated based on a first key and the second key, and the first key is generated based on first biometric information of the first user and identifier information of the first terminal device; generating, by the second terminal device, second verification information based on the authorization information, and generating third verification information based on the second key; and sending, by the second terminal device, the second verification information and the third verification information to an in-vehicle device, wherein the in-vehicle device is configured to: receive the second key, verify the third verification information based on the second key, verify the second verification information based on a preset digital vehicle key and the second key, and if the verification succeeds, control a vehicle to start; and the digital vehicle key is obtained based on the first biometric information of the first user and the identifier information of the first terminal device.
A wireless adapter for a measurement device , comprising: a first universal serial bus (USB) host port to couplably receive vehicle data from the measurement device ; a battery that powers the measurement device via the first USB host port ; a wireless module to wirelessly transmit the received vehicle data to an external computing device after processing by the wireless adapter ; a processor coupled to the first USB host port , the processor processing the received vehicle data; and a power supply and management unit coupled to the first USB host port , wherein the battery and an external power source are coupled to the power supply and management unit to power the wireless adapter and send a portion of the power from the external power source to the measurement device to obtain data. a first universal serial bus (USB) host port to couplably receive vehicle data from the measurement device ; a battery that powers the measurement device via the first USB host port ; a wireless module to wirelessly transmit the received vehicle data to an external computing device after processing by the wireless adapter ; a processor coupled to the first USB host port , the processor processing the received vehicle data; and a power supply and management unit coupled to the first USB host port ,
A method comprising: receiving, at data processing hardware , a control message from a 3GPP compliant cellular network ; extracting, by the data processing hardware , one or more features from the control message ; predicting, by the data processing hardware , a potential label for the control message using a predictive model configured to receive the one or more extracted features from the control message as feature inputs, the predictive model trained on a set of training control messages , each training control message comprising one or more corresponding features and an actual label ; wherein the potential label and the actual label is a characteristic of a network element, user device or base station ; determining, by the data processing hardware , that a probability (P) of the potential label satisfies a confidence threshold ; in response to determining that the probability (P) of the potential label satisfies the confidence threshold , analyzing, by the data processing hardware , the control message to determine whether the control message corresponds to a respective network performance issue impacting network performance of the cellular network ; and when the control message corresponds to the respective network performance issue impacting network performance, communicating, by the data processing hardware , the network performance issue to a network entity responsible for the network performance issue . receiving, at data processing hardware , a control message from a 3GPP compliant cellular network ; extracting, by the data processing hardware , one or more features from the control message ; predicting, by the data processing hardware , a potential label for the control message using a predictive model configured to receive the one or more extracted features from the control message as feature inputs, the predictive model trained on a set of training control messages , each training control message comprising one or more corresponding features and an actual label ; wherein the potential label and the actual label is a characteristic of a network element, user device or base station ; determining, by the data processing hardware , that a probability (P) of the potential label satisfies a confidence threshold ; in response to determining that the probability (P) of the potential label satisfies the confidence threshold , analyzing, by the data processing hardware , the control message to determine whether the control message corresponds to a respective network performance issue impacting network performance of the cellular network ; and when the control message corresponds to the respective network performance issue impacting network performance, communicating, by the data processing hardware , the network performance issue to a network entity responsible for the network performance issue .
A device for providing a soft Access Point, AP, in a wireless network, the device being configured to send, to an AP of the wireless network, a resource request message including cluster information about a cluster of network units connected to the device , receive, from the AP , a resource allocation message specifying first resources, and use the first resources for communications within the cluster , characterized in that the resource allocation message further specifies second resources allocated by the AP for uplink, UL, transmissions from the device to the AP, and the device is configured to use the second resources for UL transmissions to the AP .
A method, performed by a switch , for managing Ethernet frames, wherein the method comprises: receiving (A150), from a Frame Capture Managing Module , a configuration comprising: an identity of a network interface (NI-1) of the switch ; an indication of a first multicast channel, and information relating to a first filter to be applied, by the switch , to Ethernet frames received at the network interface (NI-1), receiving (A170), from a network node , a request for receiving Ethernet frame sent to the first multicast channel, receiving (A180) the Ethernet frames at the network interface (NI-1), filtering (A190), by use of the first filter, the Ethernet frames into a collection of Ethernet frames, and sending (A200), to the network node , the collection of Ethernet frames on the first multicast channel; wherein the first multicast channel comprises a first multicast IP address. receiving (A150), from a Frame Capture Managing Module , a configuration comprising: an identity of a network interface (NI-1) of the switch ; an indication of a first multicast channel, and information relating to a first filter to be applied, by the switch , to Ethernet frames received at the network interface (NI-1), an identity of a network interface (NI-1) of the switch ; an indication of a first multicast channel, and information relating to a first filter to be applied, by the switch , to Ethernet frames received at the network interface (NI-1), receiving (A170), from a network node , a request for receiving Ethernet frame sent to the first multicast channel, receiving (A180) the Ethernet frames at the network interface (NI-1), filtering (A190), by use of the first filter, the Ethernet frames into a collection of Ethernet frames, and sending (A200), to the network node , the collection of Ethernet frames on the first multicast channel;
An isolated human antibody or antigen-binding fragment thereof that binds human CD3 with a binding dissociation equilibrium constant (K D ) of less than 2 nM as measured in a surface plasmon resonance assay at 25°C in an antigen-capture format, wherein the antibody or antigen-binding fragment comprises six complementarity determining regions HCDR1-HCDR2-HCDR3-LCDRI-LCDR2-LCDR3, respectively, selected from the group consisting of SEQ ID NOs: 4-6-8-12-14-16, 20-22-24-28-30-32, 36-38-40-44-46-48, 52-54-56-60-62-64, 68-70-72-76-78-80, 84-86-88-92-94-96, 100-102-104-108-110-112, 116-118-120-124-126-128, 132-134-136-140-142-144, 148-150-152-156-158-160, 164-166-168-172-174-176, 180-182-184-188-190-192, 196-198-200-204-206-208, 212-214-216-220-222-224, 244-246-248-252-254-256, 260-262-264-268-270-272, 276-278-280-284-286-288, 292-294-296-300-302-304, 308-310-312-316-318-320, 324-326-328-332-334-336, 340-342-344-348-350-352, 356-358-360-364-366-368, 388-390-392-396-398-400, 404-406-408-412-414-416, 420-422-424-428-430-432, 436-438-440-444-446-448, 468-470-472-476-478-480, 484-486-488-492-494-496, 516-518-520-524-526-528, 596-598-600-604-606-608, 612-614-616-620-622-624, 628-630-632-636-638-640, 724-726-728-732-734-736, 772-774-776-780-782-784, 788-790-792-796-798-800, 804-806-808-812-814-816, 852-854-856-860-862-864, 884-886-888-892-894-896, 900-902-904-908-910-912, 932-934-936-940-942-944, 948-950-952-956-958-960, 1044-1046-1048-1236-1238-1240, 1052-1054-1056-1236-1238-1240, 1068-1070-1072-1236-1238-1240, 1076-1078-1080-1236-1238-1240, 1100-1102-1104-1236-1238-1240, 1108-1110-1112-1236-1238-1240, 1116-1118-1120-1236-1238-1240, 1124-1126-1128-1236-1238-1240, 1140-1142-1144-1236-1238-1240, 1148-1150-1152-1236-1238-1240, 1164-1166-1168-1236-1238-1240, and 1180-1182-1184-1236-1238-1240.
Protected containment chamber comprising: - entrances and exits associated with feed devices configured to feed products to be treated in said protected chamber, and extraction devices configured to remove the treated products after treatment; - one or more functional access apertures by means of which an operator can interact in protected mode with the products and/or equipment located inside the protected chamber; - depression generator devices able to generate a desired value of depression in the protected chamber, and associated with control and command devices adapted to maintain said depression in continuity in a tolerated interval of said desired value, the protected chamber further comprising at least one closing element configured to at least partly close said one or more functional access apertures , characterised in that said protected chamber comprises a detection device configured to detect a potential disturbance factor of said depression which causes a change of the value of the depression inside the chamber, the detection device being associated with means configured to determine an at least temporary variation of the depression in the protected chamber in correlation with the detection of the potential disturbance factor, wherein said detection device adapted to detect the potential disturbance factor of the depression is associated with said at least one closing element and is configured to detect an open condition of said at least one closing element . - entrances and exits associated with feed devices configured to feed products to be treated in said protected chamber, and extraction devices configured to remove the treated products after treatment; - one or more functional access apertures by means of which an operator can interact in protected mode with the products and/or equipment located inside the protected chamber; - depression generator devices able to generate a desired value of depression in the protected chamber, and associated with control and command devices adapted to maintain said depression in continuity in a tolerated interval of said desired value, the protected chamber further comprising at least one closing element configured to at least partly close said one or more functional access apertures , said protected chamber comprises a detection device configured to detect a potential disturbance factor of said depression which causes a change of the value of the depression inside the chamber, the detection device being associated with means configured to determine an at least temporary variation of the depression in the protected chamber in correlation with the detection of the potential disturbance factor, wherein said detection device adapted to detect the potential disturbance factor of the depression is associated with said at least one closing element and is configured to detect an open condition of said at least one closing element .
An energy-storage module comprising: - one or more energy-storage elements (101-103, 201-203) for storing electric energy, and - a container structure comprising a first section containing the one or more energy-storage elements, wherein: the first section of the container structure contains liquid whose boiling point at a pressure of 100 kPa is at most 120 degrees centigrade, and the container structure comprises a second section for condensing a portion of the liquid vaporized by heat generated by the one or more energy-storage elements and for conducting the condensed liquid back to the first section, and wherein the energy-storage module comprises one or more cooling ducts for conducting cooling fluid, a first piping interface for receiving the cooling fluid from an external system, and a second piping interface for exhausting the cooling fluid back to the external system, the second section comprising means to connect the first and second piping interfaces to the one or more cooling ducts , characterized in that the energy-storage module comprises a cooler element inside the second section of the container structure and at least one of the one or more cooling ducts is a tubular channel inside the cooler element, the cooler element being a separate piece of material with respect to walls of the container structure. - one or more energy-storage elements (101-103, 201-203) for storing electric energy, and - a container structure comprising a first section containing the one or more energy-storage elements,
A method of producing a decellularised tissue scaffold comprising; (i) treating a sample of tissue with an osmotic reagent, and (ii) treating the sample with a detergent, wherein the tissue sample is subjected to oscillation with a displacement of 1 mm or more and a frequency of 3 to 100 Hz during steps (i) and (ii), thereby producing a decellularised tissue scaffold. (i) treating a sample of tissue with an osmotic reagent, and (ii) treating the sample with a detergent,
A negative electrode plate , comprising: a negative current collector ; a negative active material layer , disposed on at least one surface of the negative current collector , said negative active material layer comprises opposite first surface and second surface , wherein said first surface is disposed away from the negative current collector ; and an inorganic dielectric layer , disposed on the first surface of the negative active material layer , said inorganic dielectric layer comprises first dielectric layer and second dielectric layer , the inorganic dielectric layer consists of an inorganic dielectric material comprising alumina, wherein the first dielectric layer is located on an outer surface of the negative active material layer and has a thickness T 1 of 30 nm ≤ T 1 ≤ 1000 nm, wherein the second dielectric layer is located on an inner wall of at least a portion of pores inside the negative active material layer and has a thickness T 2 of 0 nm < T 2 ≤ 500 nm, the second dielectric layer extends in a thickness direction from the first surface to the second surface ; and extension depth H and thickness T 1 of the first dielectric layer satisfy: 0.5 ≤ H/T 1 ≤ 5, and wherein the negative electrode plate has a compact density of from 1.2 g/cm 3 to 2.0 g/cm 3 and a porosity of from 25% to 60%. a negative current collector ; a negative active material layer , disposed on at least one surface of the negative current collector , said negative active material layer comprises opposite first surface and second surface , wherein said first surface is disposed away from the negative current collector ; and an inorganic dielectric layer , disposed on the first surface of the negative active material layer , said inorganic dielectric layer comprises first dielectric layer and second dielectric layer , the inorganic dielectric layer consists of an inorganic dielectric material comprising alumina, wherein the first dielectric layer is located on an outer surface of the negative active material layer and has a thickness T 1 of 30 nm ≤ T 1 ≤ 1000 nm, wherein the second dielectric layer is located on an inner wall of at least a portion of pores inside the negative active material layer and has a thickness T 2 of 0 nm < T 2 ≤ 500 nm, the second dielectric layer extends in a thickness direction from the first surface to the second surface ; and extension depth H and thickness T 1 of the first dielectric layer satisfy: 0.5 ≤ H/T 1 ≤ 5, and wherein the negative electrode plate has a compact density of from 1.2 g/cm 3 to 2.0 g/cm 3 and a porosity of from 25% to 60%.