mhurhangee/ep-ind-claims huggingface dataset:
An electronic fuse (eFuse), comprising: a controller; a power transistor configured to conduct a load current between a first terminal and a second terminal of the power transistor, wherein the first terminal couples to the controller at a first node; a first sense transistor coupled to the power transistor at the second terminal, wherein a third terminal of the first sense transistor couples to the controller via a first resistor at a second node, the first resistor having a first temperature coefficient; and a second sense transistor coupled to the power transistor at the second terminal, wherein a fourth terminal of the second sense transistor couples to the controller via a second resistor at a third node, the second resistor having a second temperature coefficient, wherein the controller is configured to generate a first sense current that is a function of the first temperature coefficient and a second sense current that is a function of the second temperature coefficient; wherein the controller is configured to compute a desired current value using the first and the second sense currents; wherein the controller is configured to turn-off an electrical system if the controller determines that the desired current value is greater than a pre-defined value; and wherein the first and second temperature coefficients are different. a controller; a power transistor configured to conduct a load current between a first terminal and a second terminal of the power transistor, wherein the first terminal couples to the controller at a first node; a first sense transistor coupled to the power transistor at the second terminal, wherein a third terminal of the first sense transistor couples to the controller via a first resistor at a second node, the first resistor having a first temperature coefficient; and a second sense transistor coupled to the power transistor at the second terminal, wherein a fourth terminal of the second sense transistor couples to the controller via a second resistor at a third node, the second resistor having a second temperature coefficient, wherein the controller is configured to generate a first sense current that is a function of the first temperature coefficient and a second sense current that is a function of the second temperature coefficient; wherein the controller is configured to compute a desired current value using the first and the second sense currents; wherein the controller is configured to turn-off an electrical system if the controller determines that the desired current value is greater than a pre-defined value; and wherein the first and second temperature coefficients are different.
Compressible pillar for the preparation of a vacuum insulated glazing unit, having a longitudinal extent in the pre-compressed state and comprising a deformable part having an open structure, which open structure will at least partially collapse when the pillar is subject to a compression force acting in the longitudinal direction of the pillar, characterised in that the compression force is of at least one value selected within the range of 60 N to 320 N such as a value of the compression force being selected from the range of 60 N to 140 N, from the range of 140 N to 230 N, or from the range of 230 N to 320 N, the pillar will exhibit a partly irreversible deformation causing a reduction (ΔL, red) in the longitudinal extent of the pillar when the pillar is subjected to said compression force, so that when said compression force is fully released the pillar will exhibit an expansion (ΔL, exp) in the longitudinal direction of the pillar which is less that said reduction (ΔL, red) in the longitudinal extent of the pillar, and wherein the pillar when said compression force is released will expand in the longitudinal direction of the pillar with a relative expansion (ΔL, exp/L0) in the longitudinal direction of the pillar in the range of 0.5% to 50% of the relative reduction (ΔL, red/LO), preferably in the range of 1% to 35% of the relative reduction (ΔL, red/L0).
A container comprising a part, in the form of a container body or container closure, optionally a lid, characterized in that it has a frangible weakened portion formed in a layer of polyethylene terephthalate forming a wall of the container, the frangible weakened portion comprising a groove cut into a first surface of the layer, a first portion of the layer surrounding the groove having a crystallinity of from 35 to 45%, and a second portion of the layer, which second portion is adjacent to the first portion on opposite sides of the groove and remote from the groove, the second portion having a crystallinity at least 5% less than the crystallinity in the first portion, wherein the layer has a thickness of from 200 to 700 μm and the groove has a depth of from 200 to 500 μm.
A connection establishment method, comprising: receiving, by a relay user equipment, a served object group identifier from a network device, wherein the served object group identifier is used to indicate a group of served objects for which the relay user equipment provides a relay service, and the served object group identifier comprises at least one group identifier; receiving, by the relay user equipment from a remote user equipment, discovery information comprising an identifier of a second group, a relay service request, and a data link layer identity, ID, of the remote user equipment, wherein the relay service request is used to request a relay service, and the identifier of the second group is used to indicate a group to which the remote user equipment belongs or a group to which a user of the remote user equipment belongs; and when the identifier of the second group is comprised in the served object group identifier, establishing, by the relay user equipment, a connection between the relay user equipment and the remote user equipment according to the data link layer ID of the remote user equipment. receiving, by a relay user equipment, a served object group identifier from a network device, wherein the served object group identifier is used to indicate a group of served objects for which the relay user equipment provides a relay service, and the served object group identifier comprises at least one group identifier; receiving, by the relay user equipment from a remote user equipment, discovery information comprising an identifier of a second group, a relay service request, and a data link layer identity, ID, of the remote user equipment, wherein the relay service request is used to request a relay service, and the identifier of the second group is used to indicate a group to which the remote user equipment belongs or a group to which a user of the remote user equipment belongs; and when the identifier of the second group is comprised in the served object group identifier, establishing, by the relay user equipment, a connection between the relay user equipment and the remote user equipment according to the data link layer ID of the remote user equipment.
Gantry device for a vehicle treatment system, comprising two support apparatuses (22, 24), which are arranged at a distance from one another, and a cross-member apparatus, which connects the support apparatuses (22, 24) to one another, it being possible for the support apparatuses (22, 24) to be installed via a respective installation region on an installation surface for the gantry device and the support apparatuses being connected to the cross-member apparatus at a connecting region facing away from the installation region, at least one support apparatus (22, 24) having a first portion and a second portion, the first portion being connected to the cross-member apparatus at the connecting region, and the second portion comprising the installation region, as well as a hinge apparatus which connects the first portion to the second portion and is arranged between the installation region and the connecting region, characterized in that the second portion is pivotable relative to the first portion away from the other support apparatus (22, 24) about a pivot axis (58, 68).
A DC to DC boost converter (502, 602) for a climate system, comprising: a first boost circuit (504, 604) having a first transformer (510, 610) and a first bridge circuit (507, 607), wherein the first bridge circuit is arranged to drive primary windings of the first transformer; a second boost circuit (505, 605) having a second transformer (540, 640) and a second bridge circuit (508, 608), wherein the second bridge circuit is arranged to drive primary windings of the second transformer; and the second boost circuit having a switch set ((570, 580), (670, 680)), the switch set arranged to operate in a first voltage state and a second voltage state, wherein the first transformer is connected to the second transformer in series when the switch set operates in the second voltage state, wherein when the switch set operates in the first voltage state, the first boost circuit is configured to boost an input DC voltage to a first boosted voltage, wherein when the switch set operates in the second voltage state, the first boost circuit and the second boost circuit are configured to boost the input DC voltage to a second boosted voltage, and wherein the first boosted voltage is different from the second boosted voltage; characterized in that a secondary winding of the second transformer is shorted out when the switch set operates in the first voltage state. a first boost circuit (504, 604) having a first transformer (510, 610) and a first bridge circuit (507, 607), wherein the first bridge circuit is arranged to drive primary windings of the first transformer; a second boost circuit (505, 605) having a second transformer (540, 640) and a second bridge circuit (508, 608), wherein the second bridge circuit is arranged to drive primary windings of the second transformer; and the second boost circuit having a switch set ((570, 580), (670, 680)), the switch set arranged to operate in a first voltage state and a second voltage state, wherein the first transformer is connected to the second transformer in series when the switch set operates in the second voltage state, wherein when the switch set operates in the first voltage state, the first boost circuit is configured to boost an input DC voltage to a first boosted voltage, wherein when the switch set operates in the second voltage state, the first boost circuit and the second boost circuit are configured to boost the input DC voltage to a second boosted voltage, and wherein the first boosted voltage is different from the second boosted voltage; characterized in that a secondary winding of the second transformer is shorted out when the switch set operates in the first voltage state.
A method for upgrading a Hypervisor component, comprising: calling, by a kernel of a virtual machine, a hypercall interface of a Hypervisor, and loading an upgrade file to an address space of the Hypervisor, wherein the upgrade file is used for upgrading a target function in the Hypervisor component, and the upgrade file comprises an upgrade function that corresponds to the target function; calling, by the kernel of the virtual machine, the hypercall interface of the Hypervisor, and replacing an instruction at a starting position of the target function in the Hypervisor component with a first interrupt instruction; and if it is judged that a breakpoint exception is caused by the first interrupt instruction, calling, by the kernel of the virtual machine, the hypercall interface of the Hypervisor, and replacing the first interrupt instruction with a jump instruction, so as to upgrade the target function in the Hypervisor component to the upgrade function, wherein the jump instruction is directed to the upgrade function in the upgrade file in the address space. calling, by a kernel of a virtual machine, a hypercall interface of a Hypervisor, and loading an upgrade file to an address space of the Hypervisor, wherein the upgrade file is used for upgrading a target function in the Hypervisor component, and the upgrade file comprises an upgrade function that corresponds to the target function; calling, by the kernel of the virtual machine, the hypercall interface of the Hypervisor, and replacing an instruction at a starting position of the target function in the Hypervisor component with a first interrupt instruction; and if it is judged that a breakpoint exception is caused by the first interrupt instruction, calling, by the kernel of the virtual machine, the hypercall interface of the Hypervisor, and replacing the first interrupt instruction with a jump instruction, so as to upgrade the target function in the Hypervisor component to the upgrade function, wherein the jump instruction is directed to the upgrade function in the upgrade file in the address space.
An air bearing assembly for use with a turbine driven rotatable motor shaft contained within a housing, and including an external air supply for supplying air to actuate the turbine, said air bearing assembly comprising a composite cylindrical air bearing supporting said motor shaft, said composite cylindrical air bearing having alternating segmented porous carbon sections and nonporous carbon sections bonded together, wherein said air bearing assembly further comprises at least one sleeve installed externally and circumferentially about said composite cylindrical air bearing, said sleeve having circumferential openings formed therein, therethrough and therearound such that said circumferential openings are adjacent said porous carbon sections of the composite cylindrical air bearing and are oriented so as to be in longitudinal and circumferential registry with said adjacent porous carbon sections, wherein the circumferential openings are arranged in more than one row around the sleeve, wherein each row of circumferential openings corresponds to a respective porous carbon section; wherein said housing includes air passageways for delivering said air into and through each said opening externally of said sleeve, and wherein said assembly includes "O"-rings (46, 48) installed circumferentially around said assembly, one at the distal end and one at the proximal end of said assembly, whereby air supplied to said assembly is delivered through said passageways, to and through said circumferential openings in said sleeve, and to and through said porous carbon sections of said composite cylindrical air bearing, and whereby, upon supplying sufficient air to actuate said turbine, to and through said passageways, and thence to and through said porous sections of said composite cylindrical air bearing, said rotatable turbine drives said motor shaft which is supported within said bearing assembly during rotation, and said "O"-rings (46, 48) provide vibration damping of said motor shaft during rotation. wherein the circumferential openings are arranged in more than one row around the sleeve, wherein each row of circumferential openings corresponds to a respective porous carbon section; wherein said housing includes air passageways for delivering said air into and through each said opening externally of said sleeve, and wherein said assembly includes "O"-rings (46, 48) installed circumferentially around said assembly, one at the distal end and one at the proximal end of said assembly, whereby air supplied to said assembly is delivered through said passageways, to and through said circumferential openings in said sleeve, and to and through said porous carbon sections of said composite cylindrical air bearing, and whereby, upon supplying sufficient air to actuate said turbine, to and through said passageways, and thence to and through said porous sections of said composite cylindrical air bearing, said rotatable turbine drives said motor shaft which is supported within said bearing assembly during rotation, and said "O"-rings (46, 48) provide vibration damping of said motor shaft during rotation.
An electronic impedance measurement device (300;400;500;600) comprising: - a branch, called measurement branch, comprising an impedance to be measured (Z m) of essentially capacitive type and an alternating electrical source (V m), called measurement source; and - at least one branch, called reference branch, comprising an impedance (Z r), called reference impedance, of essentially capacitive type (C r); characterized in that it also comprises: - electronics, called detection electronics, configured to provide an error signal (V s) dependent on an algebraic sum of a current (I r) flowing in the at least one reference branch and of a current (I m) flowing in the measurement branch; and - at least one means (402;602,604), called adjustment means, carrying out a change of the current (I r) in the at least one reference branch in a manner inversely proportional to a control variable (k), so as to obtain a direct measurement of the impedance to be measured (Z m) as a function of the error signal (V s) and the control variable (k), said measurement source (V m) being of fixed amplitude with respect to the control variable (k) or independent of said control variable (k). - a branch, called measurement branch, comprising an impedance to be measured (Z m) of essentially capacitive type and an alternating electrical source (V m), called measurement source; and - at least one branch, called reference branch, comprising an impedance (Z r), called reference impedance, of essentially capacitive type (C r); - electronics, called detection electronics, configured to provide an error signal (V s) dependent on an algebraic sum of a current (I r) flowing in the at least one reference branch and of a current (I m) flowing in the measurement branch; and - at least one means (402;602,604), called adjustment means, carrying out a change of the current (I r) in the at least one reference branch in a manner inversely proportional to a control variable (k), so as to obtain a direct measurement of the impedance to be measured (Z m) as a function of the error signal (V s) and the control variable (k), said measurement source (V m) being of fixed amplitude with respect to the control variable (k) or independent of said control variable (k).
The use of hydroxybenzoic acid ester as set in Formula below in the manufacture of a medicament for the prevention and treatment of human or animal HPV infection, condyloma acuminata induced by HPV, cervical erosion in HPV positive patients, chronic cervicitis in HPV positive patients, or to aid in the treatment of cervical cancer, wherein R is C1-11 alkyl group; R1, R2, R3, R4 and R5 are independently OH or H; and at least two of which are OH.
A fuel pump assembly for an internal combustion engine, the fuel pump assembly comprising: a plunger arranged to reciprocate under the influence of a drive assembly driven by means of a drive shaft, to perform a pumping cycle comprising a pumping stroke and a return stroke, the pumping stroke comprising movement of the plunger from a bottom dead centre position to a top dead centre position to pressurise fuel within a pump chamber, and the return stroke comprising movement of the plunger from the TDC position to the BDC position; a spring assembly including a return spring configured to apply a return force to the plunger to effect the return stroke, wherein the return spring is cooperable, at a first end, with a first member coupled to the plunger and movable at a first speed dependent on the speed of rotation of the drive shaft and, at a second end, with a second member which is movable at a damped speed relative to the first speed so that the return spring has a variable stroke length depending on the speed of rotation of the drive shaft; and a damper arrangement (80, 82) which acts on the second member to set the damped speed, wherein the damper arrangement includes a damper chamber for receiving a fluid which applies a damping force to the return spring, characterized in that a clearance gap is defined between the second member and a wall of the damper chamber to allow the fluid to flow out of the damper chamber. a plunger arranged to reciprocate under the influence of a drive assembly driven by means of a drive shaft, to perform a pumping cycle comprising a pumping stroke and a return stroke, the pumping stroke comprising movement of the plunger from a bottom dead centre position to a top dead centre position to pressurise fuel within a pump chamber, and the return stroke comprising movement of the plunger from the TDC position to the BDC position; a spring assembly including a return spring configured to apply a return force to the plunger to effect the return stroke, wherein the return spring is cooperable, at a first end, with a first member coupled to the plunger and movable at a first speed dependent on the speed of rotation of the drive shaft and, at a second end, with a second member which is movable at a damped speed relative to the first speed so that the return spring has a variable stroke length depending on the speed of rotation of the drive shaft; and a damper arrangement (80, 82) which acts on the second member to set the damped speed, wherein the damper arrangement includes a damper chamber for receiving a fluid which applies a damping force to the return spring, characterized in that a clearance gap is defined between the second member and a wall of the damper chamber to allow the fluid to flow out of the damper chamber.
Gas burner of the type comprising at least two flame spreaders (2, 3), at least one diffusion chamber obtained between said at least two flame spreaders for the diffusion of a primary air/gas mixture for at least one of said at least two flame spreaders, and at least one cross-lighting duct for the flame passage between said at least two flame spreaders, said at least one duct being disposed transversally inside said at least one diffusion chamber so that to define a first and a second region in said at least one diffusion chamber and comprising two side walls (9,10) and one upper wall for the fluidic direct connection between said first and said second region of said at least one diffusion chamber, said upper wall being provided with at least one hole for the inflow of said primary air/gas mixture into said cross-lighting duct, wherein said at least one cross- lighting duct comprises at least one lower opening facing said upper wall and in that said at least one lower opening is chokable.
A composition comprising a reversible anticholinesterase for use in restoring neuromuscular transmission in a non-responsive muscle that has been previously exposed to botulinum toxin, wherein the composition is administered locally to the non-responsive muscle by instramuscular or intradermal injection or transdermally.