mhurhangee/ep-ind-claims huggingface dataset:
Method for self-testing a monitoring device monitoring an integrity status of a suspension member arrangement in an elevator, wherein the monitoring device is configured for generating electric voltages and applying the electric voltages to cords comprised in suspension members of the suspension member arrangement, and wherein the monitoring device is configured for detecting a deterioration in the integrity status based on modifications in the applied electric voltages upon transmission through the cords; the method comprising: specifically modifying the generated electric voltages in a way such as to systematically induce modifications in the applied electric voltages upon transmission through the cords which, under normal operation conditions of the monitoring device, would be interpreted by the monitoring device as indicating the deterioration in the integrity status; verifying whether the deterioration in the integrity status is correctly detected; and initiating a self-test-failure-action if the deterioration in the integrity status is not correctly detected. specifically modifying the generated electric voltages in a way such as to systematically induce modifications in the applied electric voltages upon transmission through the cords which, under normal operation conditions of the monitoring device, would be interpreted by the monitoring device as indicating the deterioration in the integrity status; verifying whether the deterioration in the integrity status is correctly detected; and initiating a self-test-failure-action if the deterioration in the integrity status is not correctly detected.
The use of a cosmetic agent containing, in a cosmetically acceptable carrier, a) at least one copolymer A, which contains at least one structural unit according to formula and at least one structural unit according to formula and at least one structural unit according to formula wherein X + represents a physiologically acceptable cation and b) at least one silicone oil and/or silicone gum for temporarily deforming keratin fibers. a) at least one copolymer A, which contains at least one structural unit according to formula and at least one structural unit according to formula and at least one structural unit according to formula wherein X + represents a physiologically acceptable cation and b) at least one silicone oil and/or silicone gum
A dust collector, comprising: a cylindrical housing configured to form an outer appearance of the dust collector; a cyclone formed inside the housing to cause a swirling flow to separate dust from air introduced into the housing; axial inlet type swirl tubes configured to receive air and fine dust that have passed through the cyclone, and cause a swirling flow to separate the fine dust from the air; and a mesh configured to surround an outside of the axial inlet type swirl tubes to form a boundary between the cyclone and the axial inlet type swirl tubes, characterised in that the axial inlet type swirl tubes are stacked in multiple stages and the axial inlet type swirl tubes in each stage are arranged in two columns such that the first and second columns are disposed toward opposite directions to each other, and an axial length of each of the axial inlet type swirl tubes gradually increases as it approaches the axial inlet type swirl tube disposed at the center of each stage. a cylindrical housing configured to form an outer appearance of the dust collector; a cyclone formed inside the housing to cause a swirling flow to separate dust from air introduced into the housing; axial inlet type swirl tubes configured to receive air and fine dust that have passed through the cyclone, and cause a swirling flow to separate the fine dust from the air; and a mesh configured to surround an outside of the axial inlet type swirl tubes to form a boundary between the cyclone and the axial inlet type swirl tubes, characterised in that the axial inlet type swirl tubes are stacked in multiple stages and the axial inlet type swirl tubes in each stage are arranged in two columns such that the first and second columns are disposed toward opposite directions to each other, and an axial length of each of the axial inlet type swirl tubes gradually increases as it approaches the axial inlet type swirl tube disposed at the center of each stage.
User Equipment, UE, comprising: a computer-readable medium to store a mapping between Access Point Names, APNs, associated with a network, and applications associated with the UE; and processing circuitry to: receive, from the network, a whitelist of APNs, wherein the whitelist of APNs defines APNs that will be allowed by the UE, wherein communications associated with any APN not on the whitelist are to be barred by the UE; determine a barring status associated with the APNs, the barring status indicating whether communications associated with one or more of the APNs should be barred by the UE; and block a transmission of application requests to the network, from a particular application associated with the UE, when a barring status of the APN associated with the particular application indicates that communications should be barred. a computer-readable medium to store a mapping between Access Point Names, APNs, associated with a network, and applications associated with the UE; and processing circuitry to: receive, from the network, a whitelist of APNs, wherein the whitelist of APNs defines APNs that will be allowed by the UE, wherein communications associated with any APN not on the whitelist are to be barred by the UE; determine a barring status associated with the APNs, the barring status indicating whether communications associated with one or more of the APNs should be barred by the UE; and block a transmission of application requests to the network, from a particular application associated with the UE, when a barring status of the APN associated with the particular application indicates that communications should be barred. receive, from the network, a whitelist of APNs, wherein the whitelist of APNs defines APNs that will be allowed by the UE, wherein communications associated with any APN not on the whitelist are to be barred by the UE; determine a barring status associated with the APNs, the barring status indicating whether communications associated with one or more of the APNs should be barred by the UE; and block a transmission of application requests to the network, from a particular application associated with the UE, when a barring status of the APN associated with the particular application indicates that communications should be barred.
A method of producing oxidized cellulose comprising the steps of: (a) providing an aqueous pulp suspension with a consistency in a range of 15 to 30 wt-%, (b) adding at least one oxidant and at least one mediating catalyst selected from AZADO and TEMPO to the suspension, and (c) oxidizing cellulosic hydroxyl groups under mechanical mixing or shearing of the suspension, to have friction between fibres to open the inner structure of the fibres for catalyzed oxidation. (a) providing an aqueous pulp suspension with a consistency in a range of 15 to 30 wt-%, (b) adding at least one oxidant and at least one mediating catalyst selected from AZADO and TEMPO to the suspension, and (c) oxidizing cellulosic hydroxyl groups under mechanical mixing or shearing of the suspension, to have friction between fibres to open the inner structure of the fibres for catalyzed oxidation.
A method for constructing a node Id, comprising: acquiring geographical region information of a node; determining an article of the node Id by adopting a strip division method according to the geographical region information of the node, wherein a hash space is divided into N strips, and each strip is divided into Z articles, wherein Z is the number of the regions, and wherein the node randomly selects one strip from the hash space, then finds the article that belongs to the region of the node from the strip; and randomly selecting one hash value from the article and constructing the node Id by combining the hash value with other attribute information of the node. acquiring geographical region information of a node; determining an article of the node Id by adopting a strip division method according to the geographical region information of the node, wherein a hash space is divided into N strips, and each strip is divided into Z articles, wherein Z is the number of the regions, and wherein the node randomly selects one strip from the hash space, then finds the article that belongs to the region of the node from the strip; and randomly selecting one hash value from the article and constructing the node Id by combining the hash value with other attribute information of the node.
A method of reporting Channel State Information, CSI, by a User Equipment, UE, in a wireless communication system supporting an unlicensed band, the method comprising: receiving, from a Base Station, BS, a Downlink Control Information, DCI, for scheduling uplink transmission in the unlicensed band; determining a transmission of a Physical Uplink Shared Channel, PUSCH, including only aperiodic CSI based on the DCI satisfying all specific conditions, wherein the specific conditions include that 1) a value of a Modulation and Coding Scheme, MCS, field in the DCI is 29, 2) a CSI request bit configured to trigger an aperiodic CSI report is included in the DCI, and 3) the number of subframes scheduled by the DCI is 1; and transmitting, to the BS, the PUSCH including only the aperiodic CSI. receiving, from a Base Station, BS, a Downlink Control Information, DCI, for scheduling uplink transmission in the unlicensed band; determining a transmission of a Physical Uplink Shared Channel, PUSCH, including only aperiodic CSI based on the DCI satisfying all specific conditions, wherein the specific conditions include that 1) a value of a Modulation and Coding Scheme, MCS, field in the DCI is 29, 2) a CSI request bit configured to trigger an aperiodic CSI report is included in the DCI, and 3) the number of subframes scheduled by the DCI is 1; and transmitting, to the BS, the PUSCH including only the aperiodic CSI.
A mobile wireless communication device having a processor and a memory (130, 132), the mobile wireless communication device comprising: a plurality of domains (406, 408, 410, 412, 414a, 414b, 414c) residing on the mobile wireless communications device, each domain comprising a configuration of computing resources executing on the device and each domain of the plurality of domains having a domain owner, wherein each domain of the plurality of domains is configured to perform functions for its domain owner ( A, B, C) and wherein each domain owner may specify policies for operation of its domain; a security domain being one of the plurality of domains, wherein the security domain is configured to determine a level of trust between an external stakeholder and the security domain; and a system-wide domain manager being resident on another one of the plurality of domains, wherein the domain on which the system-wide domain manager resides is subsidiary to the security domain, the system-wide domain manager being configured to enforce the policies on one or more subsidiary domains of the plurality of domains based on a privilege level received from the security domain, and wherein the privilege level is based on the level of trust between the external stakeholder and the security domain, wherein, when a policy of the security domain conflicts with a policy of the domain on which the system-wide domain manager resides, the system-wide domain manager is further configured to enforce the policy of the security domain. a plurality of domains (406, 408, 410, 412, 414a, 414b, 414c) residing on the mobile wireless communications device, each domain comprising a configuration of computing resources executing on the device and each domain of the plurality of domains having a domain owner, wherein each domain of the plurality of domains is configured to perform functions for its domain owner ( A, B, C) and wherein each domain owner may specify policies for operation of its domain; a security domain being one of the plurality of domains, wherein the security domain is configured to determine a level of trust between an external stakeholder and the security domain; and a system-wide domain manager being resident on another one of the plurality of domains, wherein the domain on which the system-wide domain manager resides is subsidiary to the security domain, the system-wide domain manager being configured to enforce the policies on one or more subsidiary domains of the plurality of domains based on a privilege level received from the security domain, and wherein the privilege level is based on the level of trust between the external stakeholder and the security domain, wherein, when a policy of the security domain conflicts with a policy of the domain on which the system-wide domain manager resides, the system-wide domain manager is further configured to enforce the policy of the security domain.
An optical system comprising: an infrared illuminator (126, 237A-237E, 337A-337H, 337I-337U, 537) configured to direct narrow-band infrared illumination light to an eyebox area for eye-tracking; a camera (108A, 108B) configured to capture eye-tracking images of an eye of a user; a combiner layer (140A, 240, 740) configured to receive reflected infrared light of the narrow-band infrared illumination light reflecting off the eye of the user and direct the reflected infrared light to the camera to generate the eye-tracking images; and an anti-reflection, AR, coating (533, 723) disposed on a base curvature (221, 721), wherein a transmission spectrum of the AR coating is tuned for very-high transmission for visible light over a first angle of incidence, AOI, range and very-high transmission for a narrow-band of infrared light over a second AOI range, the narrow-band of infrared light corresponding to the narrow-band infrared illumination light. an infrared illuminator (126, 237A-237E, 337A-337H, 337I-337U, 537) configured to direct narrow-band infrared illumination light to an eyebox area for eye-tracking; a camera (108A, 108B) configured to capture eye-tracking images of an eye of a user; a combiner layer (140A, 240, 740) configured to receive reflected infrared light of the narrow-band infrared illumination light reflecting off the eye of the user and direct the reflected infrared light to the camera to generate the eye-tracking images; and an anti-reflection, AR, coating (533, 723) disposed on a base curvature (221, 721), wherein a transmission spectrum of the AR coating is tuned for very-high transmission for visible light over a first angle of incidence, AOI, range and very-high transmission for a narrow-band of infrared light over a second AOI range, the narrow-band of infrared light corresponding to the narrow-band infrared illumination light.
Mortar mixture as fire protection in the form of a finishing plaster, at least 20 % of the volume of which consists of vitrified, closed-cell spheres of expanded silica sand or expanded perlite having a compressive strength of 0.7-5.0 N/mm 2, and the remaining volume of which consists at least of a binder, characterised in that the mortar mixture for the top plastering of building envelopes consists of 75 % to 95 % by volume of vitrified, closed-cell spheres of expanded silica sand or expanded perlite and support grains of silicate sands, and the residual volume consists of a binder in the form of an aqueous polymer dispersion and further additives, so that the top plaster is present in pasty form.
A cinema screen (10, 910, 1400) comprising: a light emitting display positionable to emit light towards a viewer seating area in a theatre, characterised in that the light emitting display has a surface that is configured for reflecting sound waves from the viewer seating area in multiple directions that include reflecting sound waves away from the viewer seating area.
An electrosurgical end-effector (12, 112, 212) for ablating tissue comprising: a carrier (26, 28, 226, 228) having a longitudinal extension; and first and second electrically conductive ablation members (24, 124, 224) adapted to be connected to a source of RF energy, each ablation member having a tissue engaging surface (24a, 224a) and defining an internal fluid passageway, the first and second ablation members being electrically isolated from one another and having their fluid passageways in fluid communication, wherein the first and second ablation members are mounted in the carrier, wherein the tissue-engaging surface of each of the first and second ablation members extends from the carrier, the end-effector being characterised by further comprising electrical insulation insulating the first and second ablation members from fluid in the fluid passageways. a carrier (26, 28, 226, 228) having a longitudinal extension; and first and second electrically conductive ablation members (24, 124, 224) adapted to be connected to a source of RF energy, each ablation member having a tissue engaging surface (24a, 224a) and defining an internal fluid passageway, the first and second ablation members being electrically isolated from one another and having their fluid passageways in fluid communication, wherein the first and second ablation members are mounted in the carrier, wherein the tissue-engaging surface of each of the first and second ablation members extends from the carrier, the end-effector being characterised by further comprising electrical insulation insulating the first and second ablation members from fluid in the fluid passageways.
A unit cell of a high power transistor comprising: a transistor having a source region, a drain region and a gate contact, the gate contact being arranged on a surface of an epitaxial layer between the source region and the drain region; a first and a second ohmic contact on the source and drain regions, respectively, that respectively define a source contact and a drain contact on the surface of the epitaxial layer, wherein the gate contact separates the source contacts and the drain contacts; wherein the source contact is split into a first and a second portion, or the drain contact is split into a first and a second portion, a region of the surface of the epitaxial layer being defined between the first and the second portion of the source contact or the first and the second portion of the drain contact; and wherein the source, drain and gate contacts are arranged such that there is an absence of metal on the region of the surface of the epitaxial layer defined between the first and second portions of the source contact, or defined between the first and second portions of the drain contact. a transistor having a source region, a drain region and a gate contact, the gate contact being arranged on a surface of an epitaxial layer between the source region and the drain region; a first and a second ohmic contact on the source and drain regions, respectively, that respectively define a source contact and a drain contact on the surface of the epitaxial layer, wherein the gate contact separates the source contacts and the drain contacts; wherein the source contact is split into a first and a second portion, or the drain contact is split into a first and a second portion, a region of the surface of the epitaxial layer being defined between the first and the second portion of the source contact or the first and the second portion of the drain contact; and wherein the source, drain and gate contacts are arranged such that there is an absence of metal on the region of the surface of the epitaxial layer defined between the first and second portions of the source contact, or defined between the first and second portions of the drain contact.
A method for a user equipment, UE, operating in a wireless communication system comprising a first base station, BS, and a second BS, the method comprising: configuring first and second medium access control, MAC, entities (1213, 1215); mapping, to the first MAC entity, at least one first logical channel group, LCG, including one or more logical channels for transmitting uplink data to the first BS; mapping, to the second MAC entity, at least one second logical channel group, LCG, including one or more logical channels for transmitting uplink data to the second BS; and in each one of the first and second MAC entities: determining whether a criterion for triggering a buffer status report, BSR, is satisfied when uplink data becomes available for transmission on a logical channel belonging to an LCG mapped to the one of the first and second MAC entities; and triggering the BSR to the respective BS if the criterion is satisfied, characterized in that the criterion for triggering a BSR is determined to be satisfied in one of the first and second MAC entities if the uplink data becomes available for transmission on a logical channel having higher priority than the priority of any logical channel which belongs to any LCG mapped to the same MAC entity and for which uplink data is already available for transmission. configuring first and second medium access control, MAC, entities (1213, 1215); mapping, to the first MAC entity, at least one first logical channel group, LCG, including one or more logical channels for transmitting uplink data to the first BS; mapping, to the second MAC entity, at least one second logical channel group, LCG, including one or more logical channels for transmitting uplink data to the second BS; and in each one of the first and second MAC entities: determining whether a criterion for triggering a buffer status report, BSR, is satisfied when uplink data becomes available for transmission on a logical channel belonging to an LCG mapped to the one of the first and second MAC entities; and triggering the BSR to the respective BS if the criterion is satisfied, determining whether a criterion for triggering a buffer status report, BSR, is satisfied when uplink data becomes available for transmission on a logical channel belonging to an LCG mapped to the one of the first and second MAC entities; and triggering the BSR to the respective BS if the criterion is satisfied, characterized in that the criterion for triggering a BSR is determined to be satisfied in one of the first and second MAC entities if the uplink data becomes available for transmission on a logical channel having higher priority than the priority of any logical channel which belongs to any LCG mapped to the same MAC entity and for which uplink data is already available for transmission.
An industrial cooking system for providing heat in a manufacturing process, comprising: an electrolyser for producing hydrogen fuel from water; at least one burner for using the hydrogen fuel; and a processor for controlling the at least one burner such that the at least one burner is adapted to use the hydrogen fuel under control of the processor; wherein the processor is connected to a network to enable communication to a server, the server having at least one module for providing at least one of monitoring or control of the operation of the system; and wherein the electrolyser is adapted to generate the hydrogen fuel under control of a processor and responsive to an indication of processor controlled use of the hydrogen fuel by the at least one burner. an electrolyser for producing hydrogen fuel from water; at least one burner for using the hydrogen fuel; and a processor for controlling the at least one burner such that the at least one burner is adapted to use the hydrogen fuel under control of the processor; wherein the processor is connected to a network to enable communication to a server, the server having at least one module for providing at least one of monitoring or control of the operation of the system; and wherein the electrolyser is adapted to generate the hydrogen fuel under control of a processor and responsive to an indication of processor controlled use of the hydrogen fuel by the at least one burner.