mhurhangee/ep-ind-claims huggingface dataset:
A display frame comprising a planar body moulded from plastics material, - with at least two oppositely disposed hingeable clamping-rails, - the body including peripheral sidewalls (3.1) for location of the clamping-rails, - the clamping-rails each having a free, clamping edge (7.1) and a hinged edge movably securable to the body with a lug formation, which lug formation providing oppositely disposed first and second flanges, which lug formation locates through a slot provided between the body and sidewall (3.1), - the first flange extending forwardly to engage an edge of the slot provided by the sidewall (3.1) and - the second flange extending through the slot to a rear side of the body - with the display frame further comprising a spring biased cam formation which supports the second flanges in a position corresponding to a closed condition of the respective clamping-rails and - provides an interference path for the second flanges as the respective clamping-rails are moved from the closed condition towards an open condition, - wherein the cam formations are configured and arranged to act against the second flanges with a bias when the respective clamping-rails are in a closed condition and provide an increasing bias against movement of the respective clamping-rails towards the open condition, - wherein the cam formations are each provided by a spring clip moulded integrally from resiliently flexible plastics material, and wherein the clips are moulded with a base to one side, locatable against the frame body, and a rearwardly curved tongue providing the cam formation. - with at least two oppositely disposed hingeable clamping-rails, - the body including peripheral sidewalls (3.1) for location of the clamping-rails, - the clamping-rails each having a free, clamping edge (7.1) and a hinged edge movably securable to the body with a lug formation, which lug formation providing oppositely disposed first and second flanges, which lug formation locates through a slot provided between the body and sidewall (3.1), - the first flange extending forwardly to engage an edge of the slot provided by the sidewall (3.1) and - the second flange extending through the slot to a rear side of the body - with the display frame further comprising a spring biased cam formation which supports the second flanges in a position corresponding to a closed condition of the respective clamping-rails and - provides an interference path for the second flanges as the respective clamping-rails are moved from the closed condition towards an open condition, - wherein the cam formations are configured and arranged to act against the second flanges with a bias when the respective clamping-rails are in a closed condition and provide an increasing bias against movement of the respective clamping-rails towards the open condition, - wherein the cam formations are each provided by a spring clip moulded integrally from resiliently flexible plastics material, and wherein the clips are moulded with a base to one side, locatable against the frame body, and a rearwardly curved tongue providing the cam formation.
A system for treatment of involuntary muscle contraction, comprising: a wearable interface (104, 310, 414, 504) having an internal contact surface (140, 308), the wearable interface (104, 310, 414, 504) configured to at least partially encircle a first portion of a limb of a subject; and an energy applicator carried by the wearable interface (104, 310, 414, 504) and configured to apply vibrational energy and electrical stimulation energy to the limb of the subject, characterised in that the energy applicator is configured to apply the vibrational energy at a frequency of between about 15 kHz and about 1 MHz. a wearable interface (104, 310, 414, 504) having an internal contact surface (140, 308), the wearable interface (104, 310, 414, 504) configured to at least partially encircle a first portion of a limb of a subject; and an energy applicator carried by the wearable interface (104, 310, 414, 504) and configured to apply vibrational energy and electrical stimulation energy to the limb of the subject, characterised in that the energy applicator is configured to apply the vibrational energy at a frequency of between about 15 kHz and about 1 MHz.
A dicer including a body, the body having a motor, a container for containing dicing food, and a container cover on the container for covering the container, which is a power output shaft is provided in the container, and deceleration components and cutter disks are provided on the output shaft, wherein the cutter disks include a slicing cutter disk and a dicing cutter disk, the dicing cutter disk being provided under the slicing cutter disk, a slicing cutter being provided on the slicing cutter disk, a dicing grid cutter being provided on the dicing cutter disk, the dicing cutter disk being fixed, wherein the deceleration components include a central gear on the output shaft, a deceleration box being provided on the central gear, and an annular gear being provided on the deceleration box, characterized in that the deceleration box includes a box and a bottom cover, the box and the bottom cover forming a cavity with cavity gears therein, the cavity gears including 1 ∼ 6 medium gears, each of medium gears having a gear needle at axis location, convex blocks being formed on a top surface of the bottom cover, needle holes being defined in the convex blocks for fitting to the gear needles, and the gear needles, the convex blocks, the needle holes and the medium gears being the same in quantity.
A photosensor comprising: a light conversion region that is arranged to convert photons in an optical band to mobile charges, said light conversion region comprising a continuous doped region of a first conductivity type in a region of a second conductivity type; characterised by a plurality of separate charge storage regions of said first conductivity type separated by barrier regions of said first conductivity type within said continuous doped region, each charge storage region having a different level of doping than said charge barrier regions such that said mobile charges generated in that charge storage region are prevented from moving to an adjacent charge storage region; and a plurality of transfer gates, each transfer gate comprising a gate region adjacent to a corresponding one of said charge storage regions and disposed between that charge storage region and a drain region, wherein said charge storage regions and said drain regions are doped such that said mobile charges collected in said charge storage region will flow to said drain region when a first electric field is applied to said gate region and wherein said mobile charges collected in said charge storage region are inhibited from flowing to said drain region when a second electric field is applied to said gate region. a light conversion region that is arranged to convert photons in an optical band to mobile charges, said light conversion region comprising a continuous doped region of a first conductivity type in a region of a second conductivity type; characterised by a plurality of separate charge storage regions of said first conductivity type separated by barrier regions of said first conductivity type within said continuous doped region, each charge storage region having a different level of doping than said charge barrier regions such that said mobile charges generated in that charge storage region are prevented from moving to an adjacent charge storage region; and a plurality of transfer gates, each transfer gate comprising a gate region adjacent to a corresponding one of said charge storage regions and disposed between that charge storage region and a drain region, wherein said charge storage regions and said drain regions are doped such that said mobile charges collected in said charge storage region will flow to said drain region when a first electric field is applied to said gate region and wherein said mobile charges collected in said charge storage region are inhibited from flowing to said drain region when a second electric field is applied to said gate region.
A process for paper-making, comprising the steps of: (a) providing a pulp slurry; (b) adding to the pulp slurrry at least a first aqueous liquid and a second aqueous liquid so as to obtain a paper stock; (c) forming the paper stock obtained in the step (b) so as to obtain a wet paper web; (d) pressing and draining the wet paper web obtained in the step (c) so as to obtain a wet paper sheet; and (e) drying the wet paper sheet obtained in the step (d) so as to obtain a paper sheet, wherein, the first aqueous liquid contains one or more dialdehyde-modified polyacrylamide-type strengthening agent(s) and water as medium, and the second aqueous liquid contains one or more amphoteric polyacrylamide-type strengthening agent(s) and water as medium; the dialdehyde-modified polyacrylamide-type strengthening agent has a weight average molecular weight of 100,000-2,000,000 Dalton; the amphoteric polyacrylamide-type strengthening agent has a weight average molecular weight of 100,000-10,000,000 Dalton; and the dialdehyde-modified polyacrylamide-type strengthening agent and the amphoteric polyacrylamide-type strengthening agent added in the step (b) have a weight ratio of 25:75-75:25. (a) providing a pulp slurry; (b) adding to the pulp slurrry at least a first aqueous liquid and a second aqueous liquid so as to obtain a paper stock; (c) forming the paper stock obtained in the step (b) so as to obtain a wet paper web; (d) pressing and draining the wet paper web obtained in the step (c) so as to obtain a wet paper sheet; and (e) drying the wet paper sheet obtained in the step (d) so as to obtain a paper sheet,
A method for use in a system with multiple processor-based devices (110,111,112), the method comprising: running a first application on a first processor-based device; maintaining a second application in a standby mode on the first processor-based device; and providing a service to each of the first and second applications (APPO, APP1) on the first processor-based device by a service-providing application on the first processor-based device, wherein providing the service includes maintaining a record for the first application and the second application in which the record stores respective entry for each of the first and second applications to reflect an active service status for the first application and a standby service status of the second application, and receiving service configuration information from a second processor-based device regarding the second application at the second processor-based device, wherein the second application has an active service status on the second processor-based device and updating service configuration information for the second application on the first processor-based device based on the receiving, wherein the service-providing application comprises a key manager for an encryption protocol, further in which each of the respective entries in the record stores information regarding a respective security association of each of the first and second applications (APPO, APP1). running a first application on a first processor-based device; maintaining a second application in a standby mode on the first processor-based device; and providing a service to each of the first and second applications (APPO, APP1) on the first processor-based device by a service-providing application on the first processor-based device, wherein providing the service includes maintaining a record for the first application and the second application in which the record stores respective entry for each of the first and second applications to reflect an active service status for the first application and a standby service status of the second application, and receiving service configuration information from a second processor-based device regarding the second application at the second processor-based device, wherein the second application has an active service status on the second processor-based device and updating service configuration information for the second application on the first processor-based device based on the receiving, wherein the service-providing application comprises a key manager for an encryption protocol, further in which each of the respective entries in the record stores information regarding a respective security association of each of the first and second applications (APPO, APP1).
A die-cast aluminum alloy, which based on the total weight of the aluminum alloy consists of: 8-11 wt% of Si; 2.5-5 wt% of Cu; 0.5-1.5 wt% of Mg; 0.1-0.3 wt% of Ni; 0.6-1.2 wt% of Fe; 0.1-0.3 wt% of Cr; 0.03-0.05 wt% of Sr; 0-0.3 wt% of Er; 80.25-88.1 wt% of Al; and 0.1 wt% or below of impurities. 8-11 wt% of Si; 2.5-5 wt% of Cu; 0.5-1.5 wt% of Mg; 0.1-0.3 wt% of Ni; 0.6-1.2 wt% of Fe; 0.1-0.3 wt% of Cr; 0.03-0.05 wt% of Sr; 0-0.3 wt% of Er; 80.25-88.1 wt% of Al; and 0.1 wt% or below of impurities.
A cooling medium supply apparatus comprising: a cooling medium pump mechanism in fluid communication with a cooling medium; a self-contained gas turbine engine system operatively connected to the cooling medium pump mechanism and a machine; a first cooling medium delivery means; a second cooling medium delivery means; and a sensing means configured to provide a signal indicative of a loss of supply of the cooling medium to the machine through the first cooling medium delivery means; characterized in that, the gas turbine engine system comprises a gas turbine engine, a self-contained fuel supply, an ignition system, and a starting system, and the fuel supply comprises a pressurised fuel container, in which an internal pressure of the container is greater than an external pressure of the container, and on receipt of the signal by the engine system, the engine system is activated to thereby deliver the cooling medium through the second cooling medium delivery means to the machine. a cooling medium pump mechanism in fluid communication with a cooling medium; a self-contained gas turbine engine system operatively connected to the cooling medium pump mechanism and a machine; a first cooling medium delivery means; a second cooling medium delivery means; and a sensing means configured to provide a signal indicative of a loss of supply of the cooling medium to the machine through the first cooling medium delivery means; characterized in that, the gas turbine engine system comprises a gas turbine engine, a self-contained fuel supply, an ignition system, and a starting system, and the fuel supply comprises a pressurised fuel container, in which an internal pressure of the container is greater than an external pressure of the container, and on receipt of the signal by the engine system, the engine system is activated to thereby deliver the cooling medium through the second cooling medium delivery means to the machine.
A system comprising: one or more computer processors; one or more computer memories; and a set of instructions incorporated into the one or more computer memories, the set of instructions configuring the one or more computer processors to perform operations, the operations comprising: receiving data describing an environment surrounding a first Mixed Reality "MR" merging device (104; 104A); generating, positioning, and displaying a first slice plane within the environment; connecting (206, 208) with a second MR merging device (104B, 104C, 104D) in a second environment, whereby the environment and the second environment correspond to two different real-world locations; receiving data describing inbound content from the second MR merging device and sending content data from the first MR merging device to the second MR merging device, the inbound content including data describing the second environment; and processing and displaying the inbound content data on the first slice plane. one or more computer processors; one or more computer memories; and a set of instructions incorporated into the one or more computer memories, the set of instructions configuring the one or more computer processors to perform operations, the operations comprising: receiving data describing an environment surrounding a first Mixed Reality "MR" merging device (104; 104A); generating, positioning, and displaying a first slice plane within the environment; connecting (206, 208) with a second MR merging device (104B, 104C, 104D) in a second environment, whereby the environment and the second environment correspond to two different real-world locations; receiving data describing inbound content from the second MR merging device and sending content data from the first MR merging device to the second MR merging device, the inbound content including data describing the second environment; and processing and displaying the inbound content data on the first slice plane. receiving data describing an environment surrounding a first Mixed Reality "MR" merging device (104; 104A); generating, positioning, and displaying a first slice plane within the environment; connecting (206, 208) with a second MR merging device (104B, 104C, 104D) in a second environment, whereby the environment and the second environment correspond to two different real-world locations; receiving data describing inbound content from the second MR merging device and sending content data from the first MR merging device to the second MR merging device, the inbound content including data describing the second environment; and processing and displaying the inbound content data on the first slice plane.
An energy storage device comprising: a first electrode; a second electrode; and an electrolyte disposed between the first electrode and the second electrode, wherein at least one of the first electrode or the second electrode includes a composite including a graphene framework including an interconnected porous network of both non-holey graphene sheets and holey graphene sheets; and an electrochemically active material loaded onto the graphene framework, wherein the electrochemically active material includes nanostructures of an anode material or a cathode material, wherein the cathode material includes sulfur, phosphorus, lithium cobalt oxide, lithium manganese oxide, lithium nickel manganese cobalt oxide, lithium iron phosphate, lithium nickel cobalt aluminum oxide, lithium titanate, or lithium oxide and/or the anode material includes silicon, tin, germanium, antimony, a metal oxide, niobia, or a transition metal oxide. a first electrode; a second electrode; and an electrolyte disposed between the first electrode and the second electrode, wherein at least one of the first electrode or the second electrode includes a composite including a graphene framework including an interconnected porous network of both non-holey graphene sheets and holey graphene sheets; and an electrochemically active material loaded onto the graphene framework, wherein the electrochemically active material includes nanostructures of an anode material or a cathode material, wherein the cathode material includes sulfur, phosphorus, lithium cobalt oxide, lithium manganese oxide, lithium nickel manganese cobalt oxide, lithium iron phosphate, lithium nickel cobalt aluminum oxide, lithium titanate, or lithium oxide and/or the anode material includes silicon, tin, germanium, antimony, a metal oxide, niobia, or a transition metal oxide. a graphene framework including an interconnected porous network of both non-holey graphene sheets and holey graphene sheets; and an electrochemically active material loaded onto the graphene framework, wherein the electrochemically active material includes nanostructures of an anode material or a cathode material, wherein the cathode material includes sulfur, phosphorus, lithium cobalt oxide, lithium manganese oxide, lithium nickel manganese cobalt oxide, lithium iron phosphate, lithium nickel cobalt aluminum oxide, lithium titanate, or lithium oxide and/or the anode material includes silicon, tin, germanium, antimony, a metal oxide, niobia, or a transition metal oxide.
A fiber-optic cable comprising at least one optical fiber, the optical fiber including a core and a cladding around the core, a primary buffer around the optical fiber, a multi-layer secondary buffer positioned around the primary buffer, the secondary buffer including at least a first buffer layer and a second buffer layer overlaying the first buffer layer, an outer surface of the first buffer layer being treated or pre-treated to modify the outer surface in order to achieve a desired bonding between the continuous second buffer layer, and the first buffer layer, the second buffer layer being an homogenous and continuous material layer applied over the treated or pre-treated outer surface of the first buffer layer in a continuous application process including at least one of a coating process or an extrusion process, the second buffer layer having a thickness in the range of 0.0005 to 0.0050 inches (12.7 to 127 μm), a strength member layer positioned around the multi-layer secondary buffer, an outer jacket positioned around the strength member.
An implantable cardioverter defibrillator system comprising: a sensing circuit configured to receive a cardiac electrical signal via a sensing electrode vector and sense cardiac events from the cardiac electrical signal; a therapy delivery circuit configured to deliver electrical pacing pulses to a heart of a patient via a pacing electrode vector; and a control circuit coupled to the sensing circuit and the therapy delivery circuit and configured to automatically switch between a sensing without pacing mode and a temporary pacing mode, and further configured to: detect asystole based on the cardiac electrical signal while operating in the sensing without pacing mode, in response to detecting the asystole, determine if asystole backup pacing is enabled, and automatically switch to the temporary pacing mode in response to the asystole backup pacing being enabled. a sensing circuit configured to receive a cardiac electrical signal via a sensing electrode vector and sense cardiac events from the cardiac electrical signal; a therapy delivery circuit configured to deliver electrical pacing pulses to a heart of a patient via a pacing electrode vector; and a control circuit coupled to the sensing circuit and the therapy delivery circuit and configured to automatically switch between a sensing without pacing mode and a temporary pacing mode, and further configured to: detect asystole based on the cardiac electrical signal while operating in the sensing without pacing mode, in response to detecting the asystole, determine if asystole backup pacing is enabled, and automatically switch to the temporary pacing mode in response to the asystole backup pacing being enabled. detect asystole based on the cardiac electrical signal while operating in the sensing without pacing mode, in response to detecting the asystole, determine if asystole backup pacing is enabled, and automatically switch to the temporary pacing mode in response to the asystole backup pacing being enabled.