mhurhangee/ep-ind-claims huggingface dataset:
A downhole valve assembly comprising: a generally tubular body defining a fluid flow path therethrough; a ball valve mounted within the body, the ball valve movable between an open position and a closed position for thereby controlling the flow of fluid along the fluid flow path; a valve actuation mechanism mounted within the body, the actuation mechanism located in a position which is, in use, downhole of the ball valve; and a fluid communication arrangement for communicating fluid pressure to the valve actuation mechanism to facilitate operation of the valve actuation mechanism and thereby operation of the ball valve, the fluid communication arrangement comprising a fluid inlet port which is, in use, located uphole of the ball valve. a generally tubular body defining a fluid flow path therethrough; a ball valve mounted within the body, the ball valve movable between an open position and a closed position for thereby controlling the flow of fluid along the fluid flow path; a valve actuation mechanism mounted within the body, the actuation mechanism located in a position which is, in use, downhole of the ball valve; and a fluid communication arrangement for communicating fluid pressure to the valve actuation mechanism to facilitate operation of the valve actuation mechanism and thereby operation of the ball valve, the fluid communication arrangement comprising a fluid inlet port which is, in use, located uphole of the ball valve.
A grant-free resource allocation method, wherein the method is applied to a grant-free communications system, the grant-free communications system including at least two grant-free resource areas, each grant-free resource area includes at least one cell, each cell in the grant-free resource area shares user equipment information, and configuration information of a grant-free resource of each cell in the grant-free resource area is the same, wherein the grant-free resource in a cell is divided into contention transmission units, CTUs, of different sizes, and for each user equipment in an inactive or connected state and supporting grant-free transmission in the cell, configuration information of a grant-free resource of the user equipment is mapped to one or more CTUs in the grant-free resource of the cell, the method comprising: when user equipment moves from a first cell to a second cell, obtaining, by the user equipment, an ID that is of a second grant-free resource area to which the second cell belongs and is broadcast by a second network device; and if the ID of the second grant-free resource area is the same as a preobtained ID of a first grant-free resource area to which the first cell belongs, performing, by the user equipment, UE, grant-free communication based on a first UE ID corresponding to the first cell; wherein the performing, by the user equipment, grant-free communication based on a first UE ID corresponding to the first cell comprises: performing, by the user equipment, grant-free communication based on the first UE ID corresponding to the first cell and configuration information of a first target grant-free resource in the first cell, the first target grant-free resource corresponding to the first cell and allocated by a first network device. when user equipment moves from a first cell to a second cell, obtaining, by the user equipment, an ID that is of a second grant-free resource area to which the second cell belongs and is broadcast by a second network device; and if the ID of the second grant-free resource area is the same as a preobtained ID of a first grant-free resource area to which the first cell belongs, performing, by the user equipment, UE, grant-free communication based on a first UE ID corresponding to the first cell; wherein the performing, by the user equipment, grant-free communication based on a first UE ID corresponding to the first cell comprises: performing, by the user equipment, grant-free communication based on the first UE ID corresponding to the first cell and configuration information of a first target grant-free resource in the first cell, the first target grant-free resource corresponding to the first cell and allocated by a first network device.
A method for preparing a granulate composition of the rhizomes of Alpinia galanga or Alpinia conchigera, said method comprising the steps of: a. providing a dry preparation of the rhizomes of Alpinia galanga or Alpinia conchigera which is milled; b. suspending said dry preparation in an essentially pure organic solvent, c. wet granulation of said dry preparation with a solution consisting of a binder dissolved in an essentially pure organic solvent, said solution being essentially devoid of water; d. removing the organic solvent; e. providing a final milling; wherein steps b-d) are performed at a temperature lower than 50°C, such as lower than 40°C, such as lower than 35°C, such as 30°C, and wherein said granulate composition comprises at least 2% 1'S-1'-acetoxychavicol acetate. a. providing a dry preparation of the rhizomes of Alpinia galanga or Alpinia conchigera which is milled; b. suspending said dry preparation in an essentially pure organic solvent, c. wet granulation of said dry preparation with a solution consisting of a binder dissolved in an essentially pure organic solvent, said solution being essentially devoid of water; d. removing the organic solvent; e. providing a final milling;
A system for sensing gases dissolved in a sample fluid comprising one of a transformer oil, dielectric or insulating oil or mineral oil, the system comprising: at least one source for irradiating electromagnetic radiation into a sample fluid and a reference fluid resulting in a change in a temperature of the sample fluid and a change in a temperature of the reference fluid; and a first container that contains the sample fluid to be tested for the determination of the gas of interest dissolved in the sample fluid; and a second container that contains the reference fluid; a plurality of sensors (34, 36) located in the first container and the second container, wherein the plurality of sensors (34, 36) generate signals that are representative of the change in the temperature of the sample fluid and the change in the temperature of the reference fluid; a processing subsystem that monitors and determines a concentration of a gas of interest dissolved in the sample fluid by determining a difference between the change in the temperature of the sample fluid and the change in the temperature of the reference fluid, wherein the reference fluid does not contain the gas of interest, and the electromagnetic radiation has a wavelength range corresponding to a spectral absorption range of the gas of interest; wherein the processing subsystem determines the concentration of the gas of interest without extracting the gas of interest from the sample fluid; and wherein the sample fluid comprises one of a transformer oil, dielectric or insulating oil or mineral oil. at least one source for irradiating electromagnetic radiation into a sample fluid and a reference fluid resulting in a change in a temperature of the sample fluid and a change in a temperature of the reference fluid; and a first container that contains the sample fluid to be tested for the determination of the gas of interest dissolved in the sample fluid; and a second container that contains the reference fluid; a plurality of sensors (34, 36) located in the first container and the second container, wherein the plurality of sensors (34, 36) generate signals that are representative of the change in the temperature of the sample fluid and the change in the temperature of the reference fluid; a processing subsystem that monitors and determines a concentration of a gas of interest dissolved in the sample fluid by determining a difference between the change in the temperature of the sample fluid and the change in the temperature of the reference fluid, wherein the reference fluid does not contain the gas of interest, and the electromagnetic radiation has a wavelength range corresponding to a spectral absorption range of the gas of interest; wherein the processing subsystem determines the concentration of the gas of interest without extracting the gas of interest from the sample fluid; and wherein the sample fluid comprises one of a transformer oil, dielectric or insulating oil or mineral oil.
A heat insulation structure (200; 500) for a garment (600; 800) with a. a first insulation element (210; 510); and b. a second insulation element (220; 520); c. wherein the first insulation element is connected to the second insulation element, d. wherein the second insulation element is deformed when wearing the garment by a pressure on an interior side of the heat insulation structure such that a contact area, in which the first insulation element contacts the second insulation element is increased, and e. wherein in a cross-section of the heat insulation structure a first arc (224; 534) along an inner surface of the second insulation element comprises a greater length (A; a) than a length (B; b) of a second arc (222; 532) in the cross-section along an outer surface of the second insulation element, characterized in that f. a ratio of the length (A; a) of the first arc to the length (B; b) of the second arc lies in the range 1.4: 1 - 2: 1, preferably in the range 1.45: 1 - 1.55: 1. a. a first insulation element (210; 510); and b. a second insulation element (220; 520); c. wherein the first insulation element is connected to the second insulation element, d. wherein the second insulation element is deformed when wearing the garment by a pressure on an interior side of the heat insulation structure such that a contact area, in which the first insulation element contacts the second insulation element is increased, and e. wherein in a cross-section of the heat insulation structure a first arc (224; 534) along an inner surface of the second insulation element comprises a greater length (A; a) than a length (B; b) of a second arc (222; 532) in the cross-section along an outer surface of the second insulation element, characterized in that f. a ratio of the length (A; a) of the first arc to the length (B; b) of the second arc lies in the range 1.4: 1 - 2: 1, preferably in the range 1.45: 1 - 1.55: 1.
Method of surface metallization of a substrate characterized in that the following stages are implemented: a. physical treatment of the substrate before metallization, so that the surface energy of the substrate is greater or equal to 50 dynes, wherein the physical treatment is selected from the following treatments: a flame treatment, a corona treatment, a plasma treatment and their combinations, b. non electrolytic metallization of the surface of the substrate processed in stage 'a', by projection of one or more redox solutions as aerosol(s), c. execution of a finish layer on the plated surface, which is the application of a crosslinkable liquid composition or an electrolytic thickening of the plated surface. a. physical treatment of the substrate before metallization, so that the surface energy of the substrate is greater or equal to 50 dynes, wherein the physical treatment is selected from the following treatments: a flame treatment, a corona treatment, a plasma treatment and their combinations, b. non electrolytic metallization of the surface of the substrate processed in stage 'a', by projection of one or more redox solutions as aerosol(s), c. execution of a finish layer on the plated surface, which is the application of a crosslinkable liquid composition or an electrolytic thickening of the plated surface.
An apparatus comprising: a plurality of layers configured to provide a user interface device, wherein the plurality of layers comprises a first subset of layers configured to provide a display; and a flexible layer overlaying the plurality of layers; wherein the flexible layer is continuous across a bend region and the first subset of layers comprises a plurality of gaps across the bend region. a plurality of layers configured to provide a user interface device, wherein the plurality of layers comprises a first subset of layers configured to provide a display; and a flexible layer overlaying the plurality of layers; wherein the flexible layer is continuous across a bend region and the first subset of layers comprises a plurality of gaps across the bend region.
A tire (130, 230, 330), comprising: a hub (180, 280, 380); a first traction element (182a, 282a, 382a) coupled to the hub (180, 280, 380) and comprising a first backing plate (184, 284, 384a); and a second traction element (182b, 282b, 382b) coupled to the hub (180, 280, 380) and comprising a second backing plate (184a, 284b, 384b); wherein the second traction element (182b, 282b, 382b) is discrete from the first traction element (182a, 382a), characterised in that the first traction element (182a, 282a, 382a) comprises a first elastomeric material (186, 286, 386a) bonded to the first backing plate, wherein the first backing plate (184, 284, 384a) defines a first aperture configured to receive a first protrusion radially extending from the hub (180, 280, 380); and the second traction element (182b, 282b, 382b) comprises a second elastomeric material (186b, 286b, 386b) bonded to the second backing plate, wherein the second backing plate (184a, 284b, 384b) defines a second aperture configured to receive a second protrusion radially extending from the hub (180, 280, 380). a hub (180, 280, 380); a first traction element (182a, 282a, 382a) coupled to the hub (180, 280, 380) and comprising a first backing plate (184, 284, 384a); and a second traction element (182b, 282b, 382b) coupled to the hub (180, 280, 380) and comprising a second backing plate (184a, 284b, 384b); wherein the second traction element (182b, 282b, 382b) is discrete from the first traction element (182a, 382a), characterised in that the first traction element (182a, 282a, 382a) comprises a first elastomeric material (186, 286, 386a) bonded to the first backing plate, wherein the first backing plate (184, 284, 384a) defines a first aperture configured to receive a first protrusion radially extending from the hub (180, 280, 380); and the second traction element (182b, 282b, 382b) comprises a second elastomeric material (186b, 286b, 386b) bonded to the second backing plate, wherein the second backing plate (184a, 284b, 384b) defines a second aperture configured to receive a second protrusion radially extending from the hub (180, 280, 380).
A hearing device (2, 2A, 2B) comprising a processing unit configured to compensate for hearing loss of a user of the hearing device; an interface; and a memory unit, wherein the memory unit has stored therein: a first primary certificate comprising a first primary hearing device identifier (HDID_1_1); a second primary certificate comprising a second primary hearing device identifier (HDID_2_1); and customer data indicative of the hearing device being configured to operate as a customer hearing device, wherein the processing unit is configured to: determine if the hearing device is configured to operate as a customer hearing device based on the customer data, wherein to determine if the hearing device is configured to operate as a customer hearing device based on the customer data comprises determining if the second primary certificate is valid; and in accordance with a determination that the hearing device is configured to operate as a customer hearing device, operate the hearing device according to the second primary certificate, and wherein the processing unit is configured to, in accordance with a determination that the second primary certificate is not valid, forgo to operate the hearing device according to the second primary certificate. a processing unit configured to compensate for hearing loss of a user of the hearing device; an interface; and a memory unit, a first primary certificate comprising a first primary hearing device identifier (HDID_1_1); a second primary certificate comprising a second primary hearing device identifier (HDID_2_1); and customer data indicative of the hearing device being configured to operate as a customer hearing device, determine if the hearing device is configured to operate as a customer hearing device based on the customer data, wherein to determine if the hearing device is configured to operate as a customer hearing device based on the customer data comprises determining if the second primary certificate is valid; and in accordance with a determination that the hearing device is configured to operate as a customer hearing device, operate the hearing device according to the second primary certificate,
A shaped spinal rod having a length and a cross-sectional profile, the cross-sectional profile including: a head portion including a top surface, with a width between a first side surface, and a second side surface, a neck portion including a first side and a second side which extend from the head portion and define a thickness of the neck portion, wherein the thickness of the neck portion is less than the width of the head portion, and a body portion having a first arcuate surface extending from the first side of the neck portion, a second arcuate surface extending from the second side of the neck portion and a center point, and characterized by: a) the first and second side surfaces being parallel to each other and defining the width of the head portion, b) a planar surface connecting the first and second arcuate surfaces, the planar surface being parallel to the top surface of the head portion, and c) a ratio of approximately 0.90 between i) the width of the head portion and ii) the distance between the top surface of the head portion and the center point of the body portion. a head portion including a top surface, with a width between a first side surface, and a second side surface, a neck portion including a first side and a second side which extend from the head portion and define a thickness of the neck portion, wherein the thickness of the neck portion is less than the width of the head portion, and a body portion having a first arcuate surface extending from the first side of the neck portion, a second arcuate surface extending from the second side of the neck portion and a center point, and characterized by: a) the first and second side surfaces being parallel to each other and defining the width of the head portion, b) a planar surface connecting the first and second arcuate surfaces, the planar surface being parallel to the top surface of the head portion, and c) a ratio of approximately 0.90 between i) the width of the head portion and ii) the distance between the top surface of the head portion and the center point of the body portion. a) the first and second side surfaces being parallel to each other and defining the width of the head portion, b) a planar surface connecting the first and second arcuate surfaces, the planar surface being parallel to the top surface of the head portion, and c) a ratio of approximately 0.90 between i) the width of the head portion and ii) the distance between the top surface of the head portion and the center point of the body portion.
A sink comprising: a table having a hole; a washing case that is mounted on the table below the hole and that is divided into a plurality of spaces (121, 122) including a dishwashing space; a dish rack provided in the dishwashing space and having a rotatable washing nozzle; a sump assembly mounted on a bottom surface of the dishwashing space and configured to store washing water to be supplied to the washing nozzle; and a washing cover configured to laterally slide to open or close the dishwashing space, characterized in that the washing cover is configured to slide in the lateral direction to open the dishwashing space and be slid toward the table to be shielded by the upper surface of the table. a table having a hole; a washing case that is mounted on the table below the hole and that is divided into a plurality of spaces (121, 122) including a dishwashing space; a dish rack provided in the dishwashing space and having a rotatable washing nozzle; a sump assembly mounted on a bottom surface of the dishwashing space and configured to store washing water to be supplied to the washing nozzle; and a washing cover configured to laterally slide to open or close the dishwashing space, characterized in that the washing cover is configured to slide in the lateral direction to open the dishwashing space and be slid toward the table to be shielded by the upper surface of the table.
Battery system having a plurality of battery cells and a temperature-control device, at least comprising a cuboid-shaped hollow body having at least one connection device for supplying a separately temperature-controlled fluid and at least one connection device for discharging said fluid, a multiplicity of regularly arranged and identically formed apertures extending from a first body surface to a second body surface, wherein a cylindrical battery cell is received in each aperture and so a fluidtight liquid chamber is formed, characterised in that the hollow body, excluding the cell head and the cell base, extends over a height h of > 20 to < 100% of the total height H of the battery system, and in that the battery cells are in direct contact with the temperature-controlled fluid.
A method in a mobile node comprising: determining that a wireless local area network, WLAN, in communication connectivity with the mobile node is directly connected to a home public land mobile network, HPLMN, of the mobile node; in response to the determining, retrieving an alternative network address identifier, NAI, the alternative NAI being of a value other than the value of the root network address identifier that would properly authenticate the mobile node; and sending, from the mobile node to the WLAN, an authentication message comprising the alternative NAI in order to cause authentication of the mobile node with the WLAN to fail; receiving at the mobile node from the WLAN, a list that identifies any public land mobile network, PLMN, accessible via the WLAN, and communicating with a user-selected PLMN from the list which is different from the HPLMN. determining that a wireless local area network, WLAN, in communication connectivity with the mobile node is directly connected to a home public land mobile network, HPLMN, of the mobile node; in response to the determining, retrieving an alternative network address identifier, NAI, the alternative NAI being of a value other than the value of the root network address identifier that would properly authenticate the mobile node; and sending, from the mobile node to the WLAN, an authentication message comprising the alternative NAI in order to cause authentication of the mobile node with the WLAN to fail; receiving at the mobile node from the WLAN, a list that identifies any public land mobile network, PLMN, accessible via the WLAN, and communicating with a user-selected PLMN from the list which is different from the HPLMN.