mhurhangee/ep-ind-claims huggingface dataset:
An on-die computer apparatus comprising: a plurality of cores; a plurality of RAM modules, each of the RAM modules comprising a plurality of storage locations having a corresponding plurality of physical memory addresses, wherein a plurality of sets of the physical memory addresses are allocated for use by a respective plurality of virtual machines, VMs, each of the VMs being executed by at least one of the plurality of cores; a plurality of data transfer channels, each of the data transfer channels being associated with one of the RAM modules, and a channel controller for controlling data transfer over the plurality of data transfer channels, the channel controller being configured to: store security information indicating which of the VMs is designated as secure, and channel information indicating which of the data transfer channels is assigned for use by each of the VMs for accessing its allocated physical memory addresses, and direct read/write requests from a said VM over the data transfer channel assigned to the VM based on the security information and the channel information. a plurality of cores; a plurality of RAM modules, each of the RAM modules comprising a plurality of storage locations having a corresponding plurality of physical memory addresses, wherein a plurality of sets of the physical memory addresses are allocated for use by a respective plurality of virtual machines, VMs, each of the VMs being executed by at least one of the plurality of cores; a plurality of data transfer channels, each of the data transfer channels being associated with one of the RAM modules, and a channel controller for controlling data transfer over the plurality of data transfer channels, the channel controller being configured to: store security information indicating which of the VMs is designated as secure, and channel information indicating which of the data transfer channels is assigned for use by each of the VMs for accessing its allocated physical memory addresses, and direct read/write requests from a said VM over the data transfer channel assigned to the VM based on the security information and the channel information. store security information indicating which of the VMs is designated as secure, and channel information indicating which of the data transfer channels is assigned for use by each of the VMs for accessing its allocated physical memory addresses, and direct read/write requests from a said VM over the data transfer channel assigned to the VM based on the security information and the channel information.
A thermoplastic heat dissipation material comprising a mesogen/silicon compound (co)polymer having a number average molecular weight of 1,000 to 500,000 and represented by the following general formula: wherein Ar represents a mesogen group represented by the following formula: a represents 0.5 to 1, b represents 0 to 0.5 and a + b = 1, where a and beach represent the number proportion of the respective repeating unit in the molecule; each R 1 independently represents a monovalent hydrocarbon group free of C 1-8 aliphatic unsaturated bond, and each R 2 independently represents hydrogen atom, -Si(CH 3) 3, -Si(CH 3) 2, -Si(CH 3) 2 (CH=CH 2) or -Si(CH 3) 2 (CH 2 -CH=CH 2). Ar represents a mesogen group represented by the following formula: a represents 0.5 to 1, b represents 0 to 0.5 and a + b = 1, where a and beach represent the number proportion of the respective repeating unit in the molecule; each R 1 independently represents a monovalent hydrocarbon group free of C 1-8 aliphatic unsaturated bond, and each R 2 independently represents hydrogen atom, -Si(CH 3) 3, -Si(CH 3) 2, -Si(CH 3) 2 (CH=CH 2) or -Si(CH 3) 2 (CH 2 -CH=CH 2).
A method of reducing the amount of at least matrix-bound NNK in tobacco material comprising the steps of: (a) providing tobacco material comprising at least matrix-bound NNK; (b) optionally measuring the level of at least matrix-bound NNK in the tobacco material; (c) heating the tobacco material for at least 30 seconds to a temperature of greater than 115 degrees Celsius in the presence of a liquid or steam to release at least a portion of the matrix-bound NNK from the insoluble tobacco matrix of the tobacco material; (d) optionally measuring the level of at least matrix-bound NNK in the tobacco material following step (c); (e) optionally comparing the levels of matrix-bound NNK obtained in steps (b) and (d); and (f) identifying tobacco material in which at least matrix-bound NNK has been released from the tobacco material. (a) providing tobacco material comprising at least matrix-bound NNK; (b) optionally measuring the level of at least matrix-bound NNK in the tobacco material; (c) heating the tobacco material for at least 30 seconds to a temperature of greater than 115 degrees Celsius in the presence of a liquid or steam to release at least a portion of the matrix-bound NNK from the insoluble tobacco matrix of the tobacco material; (d) optionally measuring the level of at least matrix-bound NNK in the tobacco material following step (c); (e) optionally comparing the levels of matrix-bound NNK obtained in steps (b) and (d); and (f) identifying tobacco material in which at least matrix-bound NNK has been released from the tobacco material.
A polymeric ion-conductive electrolyte sheet comprising: i) thermoplastic polymer formed using at least three monomers; ii) a melting point or a flow point in excess of about 90°C and less than about 170°C; and iii) optical haze less than 5% measured using a standard test method ASTM D1003, characterized in that the thermoplastic polymer is a thermoplastic polyurethane formed by reacting a diisocyanate monomer with a first polyol monomer and a second polyol monomer, each of the first and second polyols having a functionality of two, wherein the first polyol has a short molecular weight and the second polyol has a longer chain with a higher molecular weight than the first polyol, and wherein the electrolyte sheet further comprises a plasticizer and the TPU forms hard and soft phases where the soft phases are compatible with the plasticizer and the hard phases hold the polymer shape, wherein the transition temperature Tg of the hard phases is higher than 90°C. i) thermoplastic polymer formed using at least three monomers; ii) a melting point or a flow point in excess of about 90°C and less than about 170°C; and iii) optical haze less than 5% measured using a standard test method ASTM D1003, characterized in that the thermoplastic polymer is a thermoplastic polyurethane formed by reacting a diisocyanate monomer with a first polyol monomer and a second polyol monomer, each of the first and second polyols having a functionality of two, wherein the first polyol has a short molecular weight and the second polyol has a longer chain with a higher molecular weight than the first polyol, and wherein the electrolyte sheet further comprises a plasticizer and the TPU forms hard and soft phases where the soft phases are compatible with the plasticizer and the hard phases hold the polymer shape, wherein the transition temperature Tg of the hard phases is higher than 90°C.
Portable lunchbox for storing, transporting, and preparing food, comprising - a food cavity for receiving food; - a heating cavity for receiving water; - a heating element for heating water in the heating cavity; - a switch device which can be switched from a first state to a second state; wherein the lunchbox is designed - in the first state of the switch device to heat food arranged in the food cavity, and - in the second state of the switch device to steam food arranged in the food cavity, characterized in that the switch device - in the first state, closes a gas connection between the heating cavity and the food cavity, and - in the second state, opens a gas connection between the heating cavity and the food cavity. - a food cavity for receiving food; - a heating cavity for receiving water; - a heating element for heating water in the heating cavity; - a switch device which can be switched from a first state to a second state; wherein the lunchbox is designed - in the first state of the switch device to heat food arranged in the food cavity, and - in the second state of the switch device to steam food arranged in the food cavity, characterized in that the switch device - in the first state, closes a gas connection between the heating cavity and the food cavity, and - in the second state, opens a gas connection between the heating cavity and the food cavity.
A method for charging a lithium ion secondary cell, which is used as a power source for driving and mounted in a hybrid electric vehicle, wherein in a step of charging, a period during which the lithium ion secondary cell is charged is split into two or more split charging periods and non-charging periods provided between the split charging periods, and charging is performed in the split charging period (KC1, KC2) and at least one of suspension of charging and discharging is performed in the non-charging period, characterized in that the method comprises the steps of: determining whether a value of a physical quantity corresponding to a storage amount of the lithium ion secondary cell has lowered to a first predetermined value; determining whether the hybrid electric vehicle is in a travel stop state; and when it is determined that the value of the physical quantity corresponding to the storage amount of the lithium ion secondary cell has lowered to the first predetermined value and in addition when it is determined that the hybrid electric vehicle is in the travel stop state, the charging (S5, U5, V5) of the lithium ion secondary cell until the value of the physical quantity corresponding to the storage amount of the lithium ion secondary cell reaches a second predetermined value while the hybrid electric vehicle stops running, and the length of each of the split charging periods is not less than 40 seconds. determining whether a value of a physical quantity corresponding to a storage amount of the lithium ion secondary cell has lowered to a first predetermined value; determining whether the hybrid electric vehicle is in a travel stop state; and when it is determined that the value of the physical quantity corresponding to the storage amount of the lithium ion secondary cell has lowered to the first predetermined value and in addition when it is determined that the hybrid electric vehicle is in the travel stop state, the charging (S5, U5, V5) of the lithium ion secondary cell until the value of the physical quantity corresponding to the storage amount of the lithium ion secondary cell reaches a second predetermined value while the hybrid electric vehicle stops running, and the length of each of the split charging periods is not less than 40 seconds.
A method for participating in a co-located virtual, augmented, or mixed reality, xR, session including a network of Head-Mounted Devices, HMDs, in a first physical environment, the method comprising: receiving, by a first HMD, a first beacon from a second HMD requesting access to the xR session via a plurality of transmission mechanisms; determining, by the first HMD, a signal strength of the first beacon received from the second HMD; broadcasting, by the first HMD, a second beacon requesting access to the xR session, wherein the second beacon identifies the first HMD and wherein the second beacon includes the signal strength of the first beacon and the identity of the second HMD; receiving, by a host HMD, the second beacon from the first HMD; determining, based on the second beacon received by the host HMD, whether the first HMD is authorized to participate in the xR session; if the first HMD is authorized, determining, by the host HMD, a signal strength of the second beacon received from the first HMD; updating, by the host HMD, aggregated signal strength information for the network of HMDs to incorporate the signal strength of the second beacon and to include the signal strength of the first beacon from the second HMD as reported by the first HMD; and admitting, by the host HMD, the first HMD and the second HMD to the xR session based on the aggregated signal strength information. receiving, by a first HMD, a first beacon from a second HMD requesting access to the xR session via a plurality of transmission mechanisms; determining, by the first HMD, a signal strength of the first beacon received from the second HMD; broadcasting, by the first HMD, a second beacon requesting access to the xR session, wherein the second beacon identifies the first HMD and wherein the second beacon includes the signal strength of the first beacon and the identity of the second HMD; receiving, by a host HMD, the second beacon from the first HMD; determining, based on the second beacon received by the host HMD, whether the first HMD is authorized to participate in the xR session; if the first HMD is authorized, determining, by the host HMD, a signal strength of the second beacon received from the first HMD; updating, by the host HMD, aggregated signal strength information for the network of HMDs to incorporate the signal strength of the second beacon and to include the signal strength of the first beacon from the second HMD as reported by the first HMD; and admitting, by the host HMD, the first HMD and the second HMD to the xR session based on the aggregated signal strength information.
A forming sheet metal part for a vehicle frame comprising: [a] a first portion of said sheet metal part being locally heat-softened after said sheet metal part has been formed out, characterized in that it further comprises: [b] a dedicated three-dimensional distortion-absorbing area, defining an internal boundary within which said first portion is to be locally heat-softened after said sheet metal part has been formed out, and [c] said distortion-absorbing area being dimensioned such that once said locally heat-softening step has been performed, said internal boundary is adjacent to said first portion and encloses said first portion to absorb the dimensional distortions induced by said locally heat-softened first portion. [a] a first portion of said sheet metal part being locally heat-softened after said sheet metal part has been formed out, [b] a dedicated three-dimensional distortion-absorbing area, defining an internal boundary within which said first portion is to be locally heat-softened after said sheet metal part has been formed out, and [c] said distortion-absorbing area being dimensioned such that once said locally heat-softening step has been performed, said internal boundary is adjacent to said first portion and encloses said first portion to absorb the dimensional distortions induced by said locally heat-softened first portion.
A population of allogeneic T cells comprising cytomegalovirus -specific T cells for use in a method of treating CMV retinitis in a human patient, wherein the human patient has been the recipient of a solid organ transplant from a transplant donor.
Electrically operable household cooking appliance, which is a combination appliance with an oven and hob, having - an electrical power supply line (L, N) for the hob in the form of a connecting cable, which passes from the oven to the hob, and - at least one cut-out facility for interrupting the power supply line (L, N) characterised in that - the cut-out facility is a retrofit cut-out facility, - the household cooking appliance is retrofitted with the retrofit cut-out facility to interrupt the power supply line (L, N), - the retrofit cut-out facility is coupled to at least one monitoring device and the retrofit cut-out facility is set up to interrupt the power supply line (L, N) on detection of a hazard or exceptional state of the household appliance by at least one monitoring device and - the retrofit cut-out facility is connected between the oven and the connecting cable or between the connecting cable and the hob. - an electrical power supply line (L, N) for the hob in the form of a connecting cable, which passes from the oven to the hob, and - at least one cut-out facility for interrupting the power supply line (L, N) characterised in that - the cut-out facility is a retrofit cut-out facility, - the household cooking appliance is retrofitted with the retrofit cut-out facility to interrupt the power supply line (L, N), - the retrofit cut-out facility is coupled to at least one monitoring device and the retrofit cut-out facility is set up to interrupt the power supply line (L, N) on detection of a hazard or exceptional state of the household appliance by at least one monitoring device and - the retrofit cut-out facility is connected between the oven and the connecting cable or between the connecting cable and the hob.
An apparatus for drawing off and winding up synthetic threads in a melt-spinning process having a plurality of spinning stations (1.1, 1.2, 1.3), a drawing-off device (10.1) having a plurality of driven godet wheels and a winding device (13.1) having a plurality of winding stations (14.1, 14.2) being provided for each spinning station (1.1), it is being possible for adjacent drawing-off devices (10.1, 10.2, 10.3) and adjacent winding devices (13.1, 13.2, 13.3) to be driven independently of one another, and wherein a separate supply station (21.1, 21.2, 21.3) is provided for each spinning station (1.1, 1.2, 1.3), and in that the drawing-off device (10.1) and the winding device (13.1) of the spinning station (1.1) are connected to the supply station (21.1) in parallel by means of a plurality of supply lines (23.1, 23.2) for the purpose of electric power supply characterized in that the drawing-off device (10.1) and the winding device (13.1) are configured such that they can be replaced independently of one another within the spinning station (1.1), the supply lines (23.1, 23.2) being detachably connected to the supply station (21.1).
A shear band comprising: an annular first, radially outer fabric layer; and an annular second, radially inner fabric layer; characterised in that the shear band is formed from a single shear band strip helically wound circumferentially and axially with a first edge of the shear band strip, the first edge of the shear band strip having a first extension flap for engaging an opposite second edge of the shear band strip, the first extension flap being continuously secured to the opposite second edge linearly along the second opposite edge of the shear band strip. an annular first, radially outer fabric layer; and an annular second, radially inner fabric layer; characterised in that the shear band is formed from a single shear band strip helically wound circumferentially and axially with a first edge of the shear band strip, the first edge of the shear band strip having a first extension flap for engaging an opposite second edge of the shear band strip, the first extension flap being continuously secured to the opposite second edge linearly along the second opposite edge of the shear band strip.
Anti-theft device comprising a band having a free end and an end secured to a locking block which ensures that the surface of said band is locked in the closed position when said free end is inserted into a insertion slot which is provided in said locking block, said anti-theft device further comprising anti-theft detection means (240, 245) such that said locking block has a cylindrical neck in the form of a hollow body which is extended at its base by said band and has a slot having a cross section which is greater than or equal to the cross section of said band at the top of a tooth, the device further comprising a weight having a front blocking surface, said weight being longitudinally movable inside said cylindrical neck and lockable in the blocking position by means of a locking means, said anti-theft detection means (240, 245) being housed in a second block having a housing for receiving the neck of said locking block, characterized in that said device further comprises an additional means for locking said band that can be released by means of manual deformation of the additional locking zone.
A gear system for a turbofan engine assembly comprising: a sun gear rotatable about an engine centerline; a non-rotatable ring gear; a rotating carrier that is configured to drive a fan; and a plurality of planet gears intermeshed between the sun gear and the ring gear, each of the plurality of planet gears supported on rolling element bearings fit into the carrier, wherein each of the plurality of planet gears includes an inner cavity and a lubricant passage directed at the rolling element bearings and the carrier includes an outer scoop that is configured to receive lubricant from an outer fixed lubricant jet and feeds lubricant into the inner cavity and through the lubricant passage to spray lubricant on to the rolling element bearings; characterized in that the carrier has a larger outer diameter than a pitch diameter of the ring gear. a sun gear rotatable about an engine centerline; a non-rotatable ring gear; a rotating carrier that is configured to drive a fan; and a plurality of planet gears intermeshed between the sun gear and the ring gear, each of the plurality of planet gears supported on rolling element bearings fit into the carrier, wherein each of the plurality of planet gears includes an inner cavity and a lubricant passage directed at the rolling element bearings and the carrier includes an outer scoop that is configured to receive lubricant from an outer fixed lubricant jet and feeds lubricant into the inner cavity and through the lubricant passage to spray lubricant on to the rolling element bearings; characterized in that the carrier has a larger outer diameter than a pitch diameter of the ring gear.
A sensor-equipped display apparatus comprising: a light-transmissive display screen; a first sensor configured to detect light passing through the light-transmissive display screen; and a material that visually obscures the first sensor when viewed through the light-transmissive display screen; and wherein a gap in the material is provided opposite the surface of the first sensor. a light-transmissive display screen; a first sensor configured to detect light passing through the light-transmissive display screen; and a material that visually obscures the first sensor when viewed through the light-transmissive display screen; and wherein a gap in the material is provided opposite the surface of the first sensor.