mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method of providing whole disk encryption for a virtualised computer system comprising: providing a hypervisor having a data store and instantiating a disk image of the virtualised computer system as a first virtual machine, VM, having a virtual disk from which an operating system of the first VM can be booted; instantiating a second VM in the hypervisor including a software component executing therein, wherein the data store is a shared data store accessible by both the first and second VMs (602, 610), the method further comprising: the software component accessing the first VM using privileged credentials to install a software agent in the first VM and to replicate the virtual disk of the first VM in the hypervisor data store as a duplicate disk, wherein the software agent is adapted to encrypt data written to, and decrypt data read from, the disk of the first VM at a runtime of the first VM; and the software component encrypting the duplicate disk and unmounting the copied disk and mounting the encrypted duplicate disk in the first VM so as to provide an encrypted disk for the first VM. providing a hypervisor having a data store and instantiating a disk image of the virtualised computer system as a first virtual machine, VM, having a virtual disk from which an operating system of the first VM can be booted; instantiating a second VM in the hypervisor including a software component executing therein, wherein the data store is a shared data store accessible by both the first and second VMs (602, 610), the method further comprising: the software component accessing the first VM using privileged credentials to install a software agent in the first VM and to replicate the virtual disk of the first VM in the hypervisor data store as a duplicate disk, wherein the software agent is adapted to encrypt data written to, and decrypt data read from, the disk of the first VM at a runtime of the first VM; and the software component encrypting the duplicate disk and unmounting the copied disk and mounting the encrypted duplicate disk in the first VM so as to provide an encrypted disk for the first VM. the software component accessing the first VM using privileged credentials to install a software agent in the first VM and to replicate the virtual disk of the first VM in the hypervisor data store as a duplicate disk, wherein the software agent is adapted to encrypt data written to, and decrypt data read from, the disk of the first VM at a runtime of the first VM; and the software component encrypting the duplicate disk and unmounting the copied disk and mounting the encrypted duplicate disk in the first VM so as to provide an encrypted disk for the first VM.
Soil compacting device for compacting an area of ground, in particular vibrating tamper or vibrating plates, having - at least one vibrating unit and/or vibratory unit that can be driven by a drive and comprises at least one ground contact device having a ground contact element, - a drive unit comprising at least the drive, wherein the ground contact device is relatively movable with respect to the drive unit, - at least one sensor unit for recording a soil parameter and/or a soil compaction, wherein the sensor unit comprises at least one sensor, the at least one sensor being a gas pressure sensor and/or a gas flow sensor, - and at least one outer casing (3, 7) and/or an internal chamber (20, 21, 22), wherein at least the sensor is arranged in/on an interior of the outer casing (3, 7) and/or in/on the internal chamber (20, 21, 22), the internal chamber and/or the outer casing forming/generating a completely closed or largely or almost closed measurement space of the sensor, and - wherein the internal chamber (20, 21, 22) is in the form of a cylinder chamber (20, 21) of a guide cylinder for guiding the relative movement of the ground contact device with respect to the drive unit, and/or the outer casing (3, 7) comprises at least one elastic bellows element, the bellows element being arranged between the drive unit and the movable or adjustable ground contact device. - at least one vibrating unit and/or vibratory unit that can be driven by a drive and comprises at least one ground contact device having a ground contact element, - a drive unit comprising at least the drive, wherein the ground contact device is relatively movable with respect to the drive unit, - at least one sensor unit for recording a soil parameter and/or a soil compaction, wherein the sensor unit comprises at least one sensor, the at least one sensor being a gas pressure sensor and/or a gas flow sensor, - and at least one outer casing (3, 7) and/or an internal chamber (20, 21, 22), wherein at least the sensor is arranged in/on an interior of the outer casing (3, 7) and/or in/on the internal chamber (20, 21, 22), the internal chamber and/or the outer casing forming/generating a completely closed or largely or almost closed measurement space of the sensor, and - wherein the internal chamber (20, 21, 22) is in the form of a cylinder chamber (20, 21) of a guide cylinder for guiding the relative movement of the ground contact device with respect to the drive unit, and/or the outer casing (3, 7) comprises at least one elastic bellows element, the bellows element being arranged between the drive unit and the movable or adjustable ground contact device.
A wire electric discharge machine including a power supply for applying, across a machining gap between a wire electrode and a workpiece to be machined by the wire electric discharge machine, a positive polarity voltage and a negative polarity voltage alternately in a cycle of 1 microsecond or less, or applying a positive polarity voltage and a negative polarity voltage so that a ratio between those voltages applied per unit time equals to a predetermined value, characterised in that said power supply has: a voltage application means adapted to supply, across the machining gap, as a power supply output voltage the positive polarity voltage and the negative polarity voltage by inserting a non-application period that is equal to or longer than a voltage application period for each voltage application; and a vibration suppression means for suppressing a vibration that occurs in a transient state between the voltage application period and the non-application period, wherein said vibration suppression means includes a dumping resistor connected, in series to the machining gap, to the power supply and a resistance of the dumping resistor is set so that a resonant condition of the circuit including the power supply, a power cable for supplying an output from the power supply to the machining gap, and the machining gap comes near critical, and wherein the incorporation of the dumping resistor results in the waveform of the machining gap voltage to be made trapezoidal. a voltage application means adapted to supply, across the machining gap, as a power supply output voltage the positive polarity voltage and the negative polarity voltage by inserting a non-application period that is equal to or longer than a voltage application period for each voltage application; and a vibration suppression means for suppressing a vibration that occurs in a transient state between the voltage application period and the non-application period, wherein said vibration suppression means includes a dumping resistor connected, in series to the machining gap, to the power supply and a resistance of the dumping resistor is set so that a resonant condition of the circuit including the power supply, a power cable for supplying an output from the power supply to the machining gap, and the machining gap comes near critical, and wherein the incorporation of the dumping resistor results in the waveform of the machining gap voltage to be made trapezoidal.
An apparatus comprising: a fluid delivery system; a first print head coupled to the fluid delivery system having fluid passages leading to nozzle openings; a flexible circuit electrically connected to the first print head; a solidified adhesive paste layer (34, 134) sandwiched between the flexible circuit and the fluid delivery system, wherein the layer forms a hermetic seal between the flexible circuit and the fluid delivery system at least partially about a perimeter of the first print head; a second print head, wherein the solidified adhesive paste layer (34, 134) forms a hermetic seal between the flexible circuit and the fluid delivery system at least partially about a perimeter of the second print head; a first trench extending into the fluid delivery system adjacent the solidified adhesive paste layer (34, 134), wherein the solidified adhesive paste layer (34, 134) extends in at least portions of the trench, wherein the first trench (323, 523, 623) extends between the first print head and the second print head; a second trench (323, 523, 623) parallel to the first trench and between the first print head and the second print head; and a landing (541, 641) between a first trench (523, 623) and the second trench (523, 623), wherein the solidified adhesive paste layer (34, 134) extends on the landing (541, 641), and wherein a portion of the solidified adhesive paste layer (34, 134) extending between the first and second print heads is centered on the landing (541, 641). a fluid delivery system; a first print head coupled to the fluid delivery system having fluid passages leading to nozzle openings; a flexible circuit electrically connected to the first print head; a solidified adhesive paste layer (34, 134) sandwiched between the flexible circuit and the fluid delivery system, wherein the layer forms a hermetic seal between the flexible circuit and the fluid delivery system at least partially about a perimeter of the first print head; a second print head, wherein the solidified adhesive paste layer (34, 134) forms a hermetic seal between the flexible circuit and the fluid delivery system at least partially about a perimeter of the second print head; a first trench extending into the fluid delivery system adjacent the solidified adhesive paste layer (34, 134), wherein the solidified adhesive paste layer (34, 134) extends in at least portions of the trench, wherein the first trench (323, 523, 623) extends between the first print head and the second print head; a second trench (323, 523, 623) parallel to the first trench and between the first print head and the second print head; and a landing (541, 641) between a first trench (523, 623) and the second trench (523, 623), wherein the solidified adhesive paste layer (34, 134) extends on the landing (541, 641), and wherein a portion of the solidified adhesive paste layer (34, 134) extending between the first and second print heads is centered on the landing (541, 641).
β-alethine for use in a method of treating cancer in a subject in need thereof, the method comprising administering to the subject an effective amount of at least one immune modulator, wherein the administration of β-alethine occurs before, concurrently with, or after the administration of the immune modulator, and wherein the immune modulator comprises an antagonist of PD-1 or PD-L1 or an agonist of OX-40.
Power supply or control device for an electric motor, this device including: - a printed circuit board including an accommodation; - at least one battery (3; 3'; 3"); - connecting means for electrically connecting the board and the battery or batteries (3; 3'; 3"); - immobilizing means for immobilizing the battery or batteries (3; 3'; 3") relative to the board; - a removable assembly including, on the one hand, the battery or batteries (3; 3'; 3") and, on the other hand, at least one connecting head (7; 7'), which this or these batteries (3; 3'; 3") are provided with; - wherein: - said removable assembly is positioned inside the accommodation of the board; - the connecting means include, on the one hand, at least one deformed resilient organ, which the connecting head or heads (7; 7') of the removable assembly include, and which cooperates with said board as well as with the battery or batteries (3; 3'; 3") and, on the other hand, at least one electrical contact, which the board includes, and each of which cooperates with said or one of said deformed resilient organ. - a printed circuit board including an accommodation; - at least one battery (3; 3'; 3"); - connecting means for electrically connecting the board and the battery or batteries (3; 3'; 3"); - immobilizing means for immobilizing the battery or batteries (3; 3'; 3") relative to the board; - a removable assembly including, on the one hand, the battery or batteries (3; 3'; 3") and, on the other hand, at least one connecting head (7; 7'), which this or these batteries (3; 3'; 3") are provided with; - wherein: - said removable assembly is positioned inside the accommodation of the board; - the connecting means include, on the one hand, at least one deformed resilient organ, which the connecting head or heads (7; 7') of the removable assembly include, and which cooperates with said board as well as with the battery or batteries (3; 3'; 3") and, on the other hand, at least one electrical contact, which the board includes, and each of which cooperates with said or one of said deformed resilient organ. - said removable assembly is positioned inside the accommodation of the board; - the connecting means include, on the one hand, at least one deformed resilient organ, which the connecting head or heads (7; 7') of the removable assembly include, and which cooperates with said board as well as with the battery or batteries (3; 3'; 3") and, on the other hand, at least one electrical contact, which the board includes, and each of which cooperates with said or one of said deformed resilient organ.
A process for producing a mixture of fuel components, characterized in that the process comprises providing a feed of biological origin selected from tall oil, crude tall oil, resins and resin acids obtained from plants, and bio-oil from hydropyrolyzed wood; subjecting said feed of biological origin and a hydrogen gas feed to a single step of hydroprocessing in the presence of a catalyst system comprising a NiW catalyst supported on zeolite-Al 2 0 3 to form a mixture of fuel components, whereby the step of hydroprocessing is carried out at a temperature range from 280°C to 500°C and at a pressure of 30 to 200 bar.
An olefin oligomerization process comprising contacting an olefin feed with a catalyst composition under conditions suitable for oligomerization, wherein the catalyst composition comprises a crystalline aluminosilicate having the FAU, the EMT or a combination of FAU and EMT framework types, said molecular sieve having cobalt and at least one alkaline earth metal selected from calcium, barium, strontium and mixtures thereof within its intra-crystalline cages.
Actuator-damper unit for use in orthotic or prosthetic devices (1, 2, 3; 300), comprising a housing which can be fastened on the device (1, 2, 3, 300) and in which a cylin1der is formed, in which a first piston is displaceably mounted and is coupled to a piston rod which is disposed, via a first end, on the first piston and can be coupled, via a second end, to the orthotic or prosthetic device (1, 2, 3, 300), wherein the first piston separates two fluid chambers (41, 42) in the cylinder from each other and forms a piston-cylinder unit, wherein at least one further piston (32, 33) is coupled to the first piston in order to form at least one further, variable-volume fluid chamber (43, 44, 45, 46), characterized in that the at least one further piston (32, 33) is displaceably disposed in the cylinder.
A prosthetic heart valve comprising: an inner frame defining an interior volume configured to receive a valve structure within the interior volume; an outer frame surrounding the inner frame; wherein the inner and outer frames are each configured to be transitionable between a compressed condition and an expanded condition; and a connection assembly interconnecting the inner and outer frames; wherein the prosthetic heart valve is configured to provide an initial deployed state in which the inner and outer frames are in the expanded condition, and further wherein a radial shape of the outer frame in the initial deployed state is adjustable via the connection assembly to a final deployed state. an inner frame defining an interior volume configured to receive a valve structure within the interior volume; an outer frame surrounding the inner frame; wherein the inner and outer frames are each configured to be transitionable between a compressed condition and an expanded condition; and a connection assembly interconnecting the inner and outer frames; wherein the prosthetic heart valve is configured to provide an initial deployed state in which the inner and outer frames are in the expanded condition, and further wherein a radial shape of the outer frame in the initial deployed state is adjustable via the connection assembly to a final deployed state.
A sealing cover having an opening tab for a container, comprising: a tab-forming layer provided with the opening tab; and a sealing layer adhered to the tab-forming layer, the sealing layer adapted to seal the container; wherein the tab-forming layer comprises: a surface layer formed of a PET (polyethylene terephthalate) or PP (polypropylene) film; a first heat-adhesive resin layer formed on a lower surface of the surface layer; a folded film layer adhered to a part of the first heat-adhesive resin layer so as to form the opening tab, and a second heat-adhesive resin layer formed on the lower surface of the folded film layer and on the part of the first heat-adhesive resin layer that is not covered by the folded film layer; and characterised by further comprising: an intermediate substrate layer interposed between the tab-forming layer and the sealing layer, the intermediate substrate layer being formed of shock-absorbing insulating film or foam material. a tab-forming layer provided with the opening tab; and a sealing layer adhered to the tab-forming layer, the sealing layer adapted to seal the container; wherein the tab-forming layer comprises: a surface layer formed of a PET (polyethylene terephthalate) or PP (polypropylene) film; a first heat-adhesive resin layer formed on a lower surface of the surface layer; a folded film layer adhered to a part of the first heat-adhesive resin layer so as to form the opening tab, and a second heat-adhesive resin layer formed on the lower surface of the folded film layer and on the part of the first heat-adhesive resin layer that is not covered by the folded film layer; a surface layer formed of a PET (polyethylene terephthalate) or PP (polypropylene) film; a first heat-adhesive resin layer formed on a lower surface of the surface layer; a folded film layer adhered to a part of the first heat-adhesive resin layer so as to form the opening tab, and a second heat-adhesive resin layer formed on the lower surface of the folded film layer and on the part of the first heat-adhesive resin layer that is not covered by the folded film layer; and characterised by further comprising: an intermediate substrate layer interposed between the tab-forming layer and the sealing layer, the intermediate substrate layer being formed of shock-absorbing insulating film or foam material. an intermediate substrate layer interposed between the tab-forming layer and the sealing layer, the intermediate substrate layer being formed of shock-absorbing insulating film or foam material.
A method performed by a layer-3 edge router comprising: building an address resolution cache for the layer-3 edge router in a first layer-2 domain, the layer-3 edge router adapted to connect the first layer-2 domain via a layer-3 network to one or more other layer-2 domains, where the address resolution cache includes a plurality of entries, each of the entries containing a network address of a given host in another layer-2 domain, a hardware address of the given host, and a switch identifier for a switch directly connected to the given host; intercepting, at the layer-3 edge router, an address resolution flood within the first layer-2 domain that seeks address resolution for a specified host in a second layer-2 domain; and generating, by the layer-3 edge router, a response to the address resolution flood that indicates as the source of the response a switch identifier for the switch in the second layer-2 domain directly connected to the specified host and obtained from the address resolution cache. building an address resolution cache for the layer-3 edge router in a first layer-2 domain, the layer-3 edge router adapted to connect the first layer-2 domain via a layer-3 network to one or more other layer-2 domains, where the address resolution cache includes a plurality of entries, each of the entries containing a network address of a given host in another layer-2 domain, a hardware address of the given host, and a switch identifier for a switch directly connected to the given host; intercepting, at the layer-3 edge router, an address resolution flood within the first layer-2 domain that seeks address resolution for a specified host in a second layer-2 domain; and generating, by the layer-3 edge router, a response to the address resolution flood that indicates as the source of the response a switch identifier for the switch in the second layer-2 domain directly connected to the specified host and obtained from the address resolution cache.
Plant protein preparation, in particular of lupine protein, in form of an aqueous mixture, wherein the aqueous mixture comprises a water content of > 75 wt-% and a mass of solid matter which comprises more than 70 wt-% of plant proteins, and wherein the plant proteins in the aqueous mixture are denaturated to a proportion of ≤ 25%.
Apparatus for producing flake ice from a liquid, comprising a rotatably disposed evaporator roller (1, 34), comprising a shaft (2, 35) on the evaporator roller (1, 34) that transmits a torque from a drive to the evaporator roller (1, 34), comprising at least two bearing bushings (2a, 36, 48) permanently disposed on the apparatus, in which bushings the shaft (2, 35) is rotatably received and supported, comprising a scraper (4, 38) to strip ice formed from the liquid on the surface of the evaporator roller (1, 34), comprising a pan (3, 37, 51) that is open at the top to receive the liquid to be frozen, which pan has two pan side sections (11, 41, 50) and a pan base section that connects the pan side sections (11, 41) to each other and delimits the pan (3, 37, 51) at the front, rear, and bottom, comprising when the pan (3, 37, 51) is in the installed state a fluid-tight seal connection between the pan (3, 37, 51) on the one side, and on the other side the bearing bushings (2a, 36, 48), coupling elements that receive the pan (3, 37,51) and directly adjoin the pan (3, 37, 51) when the pan (3, 37, 51) is in the installed state, or the shaft (2, 35) that directly adjoins the pan (3, 37, 51) characterized in that the pan (3, 37, 51) when in the state assembled from the pan base section and pan side sections (11, 41, 50) with pan base section and pan side sections (11, 41, 50) is insertable or slidable in one piece onto the bearing bushings (2a, 36, 48) or onto the additional coupling elements that are disposed on the shaft (2, 35) or on the bearing bushings (2a, 36, 48), or directly onto the shaft (2, 35) or is detachable from this or these components, the rotatable mounting of the shaft and of the evaporator roller is independent from the pan, and the pan is installable and removable completely and in one piece.