mhurhangee/ep-ind-claims huggingface dataset:
A process for the repair of molded parts using a layered repair material, which is solid at a storage temperature, reversibly plastically deformable at a deformation temperature, and irreversibly dimensionally stably curable at a curing temperature, comprising the process steps of: a) warming the repair material from the storage temperature to the deformation temperature, b) applying the plastically deformable repair material to a repair area of the molded part, c) casting the surface contour of the repair area of the molded part, d) actively or passively cooling the repair material below the deformation temperature, e) removing the solid repair material molded onto the contour of the repair area from the repair area of the molded part, f) warming the repair material to the curing temperature by dimensionally stably curing the repair material, and g) bonding the cured repair material with the repair area of the molded part. a) warming the repair material from the storage temperature to the deformation temperature, b) applying the plastically deformable repair material to a repair area of the molded part, c) casting the surface contour of the repair area of the molded part, d) actively or passively cooling the repair material below the deformation temperature, e) removing the solid repair material molded onto the contour of the repair area from the repair area of the molded part, f) warming the repair material to the curing temperature by dimensionally stably curing the repair material, and g) bonding the cured repair material with the repair area of the molded part.
Pipe having an inner and an outer lateral surface, wherein at least part of the inner lateral surface has a coating and the inner lateral surface and the coating are non-positively engaged with one another, wherein the coating has a thickness of 1 to 50 mm, in particular a thickness of 5 to 25 mm, wherein the pipe has a metallic material, characterised in that the coating has ultra-high strength concrete, wherein the ultra-high strength concrete has a compressive strength of at least 150 N/mm 2 and the fresh ultra-high strength concrete, before introduction into the pipe, has a water-cement value of 0.1 to 0.4, preferably of 0.15 to 0.25.
A charging control method, comprising: starting, by a wireless access device, a wireless communications module; determining, by the wireless access device, an external charging state based on a network state of an accessed communications network and/or a power status of the wireless access device, wherein the external charging state comprises a current-limiting state or a normal state, a charging parameter corresponding to the current-limiting state comprises a first charging voltage and a first maximum output current, a charging parameter corresponding to the normal state comprises a second charging voltage and a second maximum output current, the first charging voltage is the same as the second charging voltage, and the first maximum output current is less than the second maximum output current; detecting, by the wireless access device, a device to be charged; performing, by the wireless access device, charging negotiation based on the charging parameter corresponding to the normal state with the device to be charged; and charging, by the wireless access device, the device to be charged based on a charging parameter corresponding to the external charging state. starting, by a wireless access device, a wireless communications module; determining, by the wireless access device, an external charging state based on a network state of an accessed communications network and/or a power status of the wireless access device, wherein the external charging state comprises a current-limiting state or a normal state, a charging parameter corresponding to the current-limiting state comprises a first charging voltage and a first maximum output current, a charging parameter corresponding to the normal state comprises a second charging voltage and a second maximum output current, the first charging voltage is the same as the second charging voltage, and the first maximum output current is less than the second maximum output current; detecting, by the wireless access device, a device to be charged; performing, by the wireless access device, charging negotiation based on the charging parameter corresponding to the normal state with the device to be charged; and charging, by the wireless access device, the device to be charged based on a charging parameter corresponding to the external charging state.
A method for transmitting a data processing request, applied to a storage system, wherein the storage system comprises a first storage node and a second storage node, a storage device in the first storage node is connected to a host by using a processor and a first network interface card of the first storage node, and is connected to a storage device of the second storage node by using a second network interface card, and the method comprises: receiving, by the first storage node, a data processing request to access the storage device of the second storage node, wherein the data processing request carries a target storage address of to-be-processed data; determining, by the first storage node, the second storage node, characterized in that the second storage node is determined by the first storage node based on the target storage address of the to-be-processed data; and wherein the method further comprises sending, by the first storage node, the data processing request to the second storage node by using the second network interface card, wherein the data processing request instructs the second storage node to process the to-be-processed data. receiving, by the first storage node, a data processing request to access the storage device of the second storage node, wherein the data processing request carries a target storage address of to-be-processed data; determining, by the first storage node, the second storage node, characterized in that the second storage node is determined by the first storage node based on the target storage address of the to-be-processed data; and wherein the method further comprises sending, by the first storage node, the data processing request to the second storage node by using the second network interface card, wherein the data processing request instructs the second storage node to process the to-be-processed data.
A method for operating a laundry washing machine comprising: - a cabinet supporting a washing drum adapted to receive laundry and a washing tub external to said washing drum; - a treating agents dispenser (20; 120; 220; 320; 420) comprising one or more compartments (23a; 323a; 423) adapted to be filled with at least one treating agent, said treating agents dispenser (20; 120; 220; 320; 420) being provided with one or more water conveying lines for conveying water to said one or more compartments (23a; 323a; 423); - a supply line, fluidly connecting said treating agents dispenser (20; 120; 220; 320; 420) and said washing tub; - a control unit for controlling functioning of said laundry washing machine; - an interface unit by means of which a user may select and/or set parameters; wherein said method comprises a step of introducing a unit dose package comprising a pre-measured amount of treating agent incorporated into a water-soluble pouch into a first one of said one or more compartments (23a; 323a; 423) which is suited to receive said unit dose package and a step of conveying water to said first compartment (23a; 323a; 423) from one of said one or more water conveying lines so that said unit dose package and said water reach said washing tub through said supply line. - a cabinet supporting a washing drum adapted to receive laundry and a washing tub external to said washing drum; - a treating agents dispenser (20; 120; 220; 320; 420) comprising one or more compartments (23a; 323a; 423) adapted to be filled with at least one treating agent, said treating agents dispenser (20; 120; 220; 320; 420) being provided with one or more water conveying lines for conveying water to said one or more compartments (23a; 323a; 423); - a supply line, fluidly connecting said treating agents dispenser (20; 120; 220; 320; 420) and said washing tub; - a control unit for controlling functioning of said laundry washing machine; - an interface unit by means of which a user may select and/or set parameters;
An ink curing apparatus comprising a UV light source; at least one moveable shutter means (17, 17a), which is moveable about the longitudinal axis of the UV light source; and at least one reflector wherein a curing aperture is defined when the shutter means (17, 17a) are in an open position; wherein an inlet/outlet is positioned away from the curing aperture; wherein at least one air passage is defined along more than 50% of the entire surface area of the rear face of the or each reflector, and wherein each reflector is connectable to said shutter means (17, 17a) and said air passage is defined between each shutter means (17, 17a) and the reflector to which it is connected, characterised in that the at least one air passage also passes along more than 50% of the surface area of the or each shutter means (17, 17a) when the apparatus is in both an open and a closed position, such that the apparatus is cooled when the shutter means are both open and closed.
A secondary battery (100, 200, 300) comprising: an electrode assembly (110, 310) in which an electrode and a separator are alternately stacked; and a battery case (120, 220) accommodating the electrode assembly (110, 310) therein, wherein the battery case (120, 220, 320) comprises a stepped part (124, 224, 324) that is disposed to be stepped, an outer surface of the battery case (120, 220, 320) is sealed to allow a folded part (125, 225, 325) to be seated on the outer surface of the stepped part (124, 224, 324), and the electrode assembly (110, 310) comprises a stepped protrusion (115, 315) that is stepped in a shape corresponding to an inner surface of the stepped part (124, 224, 324) disposed on the battery case (120, 220, 320). an electrode assembly (110, 310) in which an electrode and a separator are alternately stacked; and a battery case (120, 220) accommodating the electrode assembly (110, 310) therein, wherein the battery case (120, 220, 320) comprises a stepped part (124, 224, 324) that is disposed to be stepped, an outer surface of the battery case (120, 220, 320) is sealed to allow a folded part (125, 225, 325) to be seated on the outer surface of the stepped part (124, 224, 324), and the electrode assembly (110, 310) comprises a stepped protrusion (115, 315) that is stepped in a shape corresponding to an inner surface of the stepped part (124, 224, 324) disposed on the battery case (120, 220, 320).
A depiction element having a substrate having a surface region in which a plurality of optical elements is arranged, the depiction element being designed and intended to produce, upon illumination with parallel light of a light source, a light-spot image composed of a plurality of light spots that for a viewer appear floating above or below the surface region and that are arranged in the form of a predetermined motif, the light spots being real images or virtual images of the illuminating light source, the optical elements being formed by refractive and/or reflective optical elements and there being assigned to every light spot of the light-spot image at least one refractive and/or reflective optical element that, upon illumination of the depiction element, contributes to producing the light spot assigned to it, where, for the light spots and the assigned optical elements, in each case, f/d < 5, where f is the floating height of the light spot above or below the surface region, which corresponds to the focal length of the optical elements that contribute to said light spot, and d is the diameter of the optical elements that contribute to said light spot, the light spots of the light-spot image floating at multiple different floating heights above or below the surface region to form a three-dimensional motif.
A gas turbine engine comprising: a first vane (328a-1) of a turbine section (21, 221); a second vane (328b-1) of the turbine section (21, 221); an impingement plate that includes a first impingement hole and a second impingement hole; and a pipe that supplies a fluid, wherein the first vane (328a-1) includes a first platform, wherein the second vane (328b-1) includes a second platform and a baffle (356b-1), wherein a first portion of the fluid traverses the first impingement hole and impinges on a first surface of the first platform, wherein a second portion of the fluid traverses the second impingement hole and impinges on a second surface of the second platform, and wherein a third portion of the fluid bypasses the impingement plate and enters the baffle (356b-1); characterised in that: the first vane (328a-1) includes an airfoil, and the airfoil defines an airfoil cooling cavity entrance that receives the first portion of the fluid subsequent to the first portion of the fluid impinging on the first surface of the first platform. a first vane (328a-1) of a turbine section (21, 221); a second vane (328b-1) of the turbine section (21, 221); an impingement plate that includes a first impingement hole and a second impingement hole; and a pipe that supplies a fluid, wherein the first vane (328a-1) includes a first platform, wherein the second vane (328b-1) includes a second platform and a baffle (356b-1), wherein a first portion of the fluid traverses the first impingement hole and impinges on a first surface of the first platform, wherein a second portion of the fluid traverses the second impingement hole and impinges on a second surface of the second platform, and wherein a third portion of the fluid bypasses the impingement plate and enters the baffle (356b-1); characterised in that: the first vane (328a-1) includes an airfoil, and the airfoil defines an airfoil cooling cavity entrance that receives the first portion of the fluid subsequent to the first portion of the fluid impinging on the first surface of the first platform.
A method for wireless communications, comprising: determining timing for communications of a first radio access technology, RAT, in which the first RAT comprises Long Term Evolution, LTE; and aligning inactive portions of communications of a second RAT with the timing for communications of the first RAT, in which the second RAT comprises wireless local area network, WLAN, operating in Wi-Fi Direct mode; in which the aligning comprises aligning the communications of the second RAT and the communications of the first RAT to reduce periods where transmit periods of one radio overlap with receive periods of another radio using a Notice of Absence, NoA, signal supported in Wi-Fi Direct Peer-to-Peer, P2P, communications to indicate a periodic sleep/awake cycle. determining timing for communications of a first radio access technology, RAT, in which the first RAT comprises Long Term Evolution, LTE; and aligning inactive portions of communications of a second RAT with the timing for communications of the first RAT, in which the second RAT comprises wireless local area network, WLAN, operating in Wi-Fi Direct mode; in which the aligning comprises aligning the communications of the second RAT and the communications of the first RAT to reduce periods where transmit periods of one radio overlap with receive periods of another radio using a Notice of Absence, NoA, signal supported in Wi-Fi Direct Peer-to-Peer, P2P, communications to indicate a periodic sleep/awake cycle.
An ex vivo method of expanding hematopoietic stem or progenitor cells, the method comprising contacting hematopoietic stem cells or progenitor cells isolated from a subject, with a morpholino oligonucleotide that inhibits the expression of a VentX polypeptide, whereby expansion of the hematopoietic stem or progenitor cells is increased, wherein the oligonucleotide has a sequence SEQ ID NO: 68 or SEQ ID NO:69.
A wear-resistant multi-layer retractable water pipe, comprising: a retractable inner pipe; a fabric sleeve, configured as a one- or multi-layer retractable fabric sleeve; and a retractable wear-resistant protective layer; the retractable inner pipe is nested in the fabric sleeve, and the fabric sleeve is nested in the retractable wear-resistant protective layer; wherein the fabric sleeve is a corrugated sleeve forming a plurality of peaks and a plurality of valleys, the valleys of the fabric sleeve are axially slidable on an outer surface of the inner pipe when the fabric sleeve is deployed or retracted, and the peaks of the fabric sleeve are fit with an inner wall surface of the wear-resistant protective layer. a retractable inner pipe; a fabric sleeve, configured as a one- or multi-layer retractable fabric sleeve; and a retractable wear-resistant protective layer; the retractable inner pipe is nested in the fabric sleeve, and the fabric sleeve is nested in the retractable wear-resistant protective layer; wherein the fabric sleeve is a corrugated sleeve forming a plurality of peaks and a plurality of valleys, the valleys of the fabric sleeve are axially slidable on an outer surface of the inner pipe when the fabric sleeve is deployed or retracted, and the peaks of the fabric sleeve are fit with an inner wall surface of the wear-resistant protective layer.
A method of opening cigarettes constituting cigarette waste in a device comprising • a rotational drum the inner wall of which is provided with at least one continuous slat type scraping away element ( 2, 2 ', 2 ") extending generally along the drum, and • at least one rotational beater ( 4, 4 ', 4 ") located inside the drum striking against the cigarettes, wherein the cigarettes fed into the rotating drum, being lifted by means of at the least one scraping away element ( 2, 2 ', 2 ") and falling by gravity, are struck against by means of the at least one rotational beater ( 4, 4 ', 4 ") in a direction substantially perpendicular to the axes of the cigarettes with a force enabling their opening, the beaters (4, 4', 4") being oriented substantially along the drum. • a rotational drum the inner wall of which is provided with at least one continuous slat type scraping away element ( 2, 2 ', 2 ") extending generally along the drum, and • at least one rotational beater ( 4, 4 ', 4 ") located inside the drum striking against the cigarettes,
A floating structure comprising a hull, at least one first deck and an intermediate load-bearing wall arranged beneath the first deck, the floating structure comprising a tank that is designed to contain the liquefied combustible gas and arranged beneath the intermediate load-bearing wall, at least one pipe (2, 3) linking the tank to a management device and a tank connection space comprising at least one isolation valve arranged on said at least one pipe (2, 3) and an enclosure sealingly enveloping said at least one isolation valve, in which the tank is a membrane tank built into said hull, the walls of the tank comprising, successively from the outside towards the inside of the tank, at least one layer of thermal insulation carried by an inner surface of said hull and by a lower surface of the intermediate load-bearing wall and at least one sealed membrane arranged on an inner surface of said layer of thermal insulation, characterized in that the tank connection space is arranged above the intermediate load-bearing wall and at least partially beneath the first deck and in which a space between the first deck and the intermediate load-bearing wall containing all or part of the tank connection space is made into a cofferdam.
Navigation system in a vehicle or a handheld GPS device comprising: a non-volatile, writable memory in form of a hard disk for storing digital navigation data, a means for checking an access code to allow the access of digital navigation data stored in the memory, and a means for creating an access protection code for the digital navigation data. a non-volatile, writable memory in form of a hard disk for storing digital navigation data, a means for checking an access code to allow the access of digital navigation data stored in the memory, and a means for creating an access protection code for the digital navigation data.
A wire comprising a steel core wire and a polyamide coating layer; wherein the polyamide coating layer is provided at the surface of the wire; wherein the polyamide of the polyamide coating layer is selected from the group consisting of polyamide 6, polyamide 6.6, polyamide 11 and polyamide 12; characterized in that the wire comprises a polyamide-imide coating layer contacting the polyamide coating layer at the inner side of the polyamide coating layer.
A computer-implemented method, comprising: receiving a request to attach a virtual graphics processing unit, GPU, to a virtual compute instance, wherein the request comprises one or more constraints; retrieving, from a data store, data indicative of a set of virtual GPUs available in a provider network that match the one or more constraints, wherein the data store comprises a plurality of segments associated with the one or more constraints and a plurality of additional segments associated with one or more different constraints, and wherein the set of virtual GPUs belong to one segment of the plurality of segments; determining a selected virtual GPU from among the available virtual GPUs in the set; and reserving the selected virtual GPU for attachment to the virtual compute instance, wherein the selected virtual GPU is attached to the virtual compute instance, wherein the virtual compute instance is implemented using central processing unit, CPU, resources and memory resources of a physical compute instance, wherein the selected virtual GPU is implemented using a physical GPU in the provider network, and wherein the physical GPU is accessible to the physical compute instance over a network. receiving a request to attach a virtual graphics processing unit, GPU, to a virtual compute instance, wherein the request comprises one or more constraints; retrieving, from a data store, data indicative of a set of virtual GPUs available in a provider network that match the one or more constraints, wherein the data store comprises a plurality of segments associated with the one or more constraints and a plurality of additional segments associated with one or more different constraints, and wherein the set of virtual GPUs belong to one segment of the plurality of segments; determining a selected virtual GPU from among the available virtual GPUs in the set; and reserving the selected virtual GPU for attachment to the virtual compute instance, wherein the selected virtual GPU is attached to the virtual compute instance, wherein the virtual compute instance is implemented using central processing unit, CPU, resources and memory resources of a physical compute instance, wherein the selected virtual GPU is implemented using a physical GPU in the provider network, and wherein the physical GPU is accessible to the physical compute instance over a network.