mhurhangee/ep-ind-claims huggingface dataset:
A fixing device comprising: an endless belt to rotate in a rotation direction; an opposed rotator to contact an outer circumferential surface of the endless belt to form a nip between the endless belt and the opposed rotator; a heater contacting an inner circumferential surface of the endless belt, the heater including a heat generator that is divided into a plurality of heat generating portions in an axial direction of the endless belt, the heat generator comprising a dividing region defined as a region located between adjacent heat generating portions and a non-dividing region defined as a region other than the dividing region at which heat generating portions are located; and characterized by: a guide (26B; 26S; 26BS; 26BT), contacting the inner circumferential surface of the endless belt, to guide the endless belt, the guide (26B; 26S; 26BS; 26BT) being shifted with respect to the dividing region so as to be disposed opposite a position corresponding to the non-dividing region of the heat generator at which heat generating portions are located. an endless belt to rotate in a rotation direction; an opposed rotator to contact an outer circumferential surface of the endless belt to form a nip between the endless belt and the opposed rotator; a heater contacting an inner circumferential surface of the endless belt, the heater including a heat generator that is divided into a plurality of heat generating portions in an axial direction of the endless belt, the heat generator comprising a dividing region defined as a region located between adjacent heat generating portions and a non-dividing region defined as a region other than the dividing region at which heat generating portions are located; and characterized by: a guide (26B; 26S; 26BS; 26BT), contacting the inner circumferential surface of the endless belt, to guide the endless belt, the guide (26B; 26S; 26BS; 26BT) being shifted with respect to the dividing region so as to be disposed opposite a position corresponding to the non-dividing region of the heat generator at which heat generating portions are located.
A reductant delivery unit, comprising: a fluid injector having a fluid inlet, a fluid outlet and a fluid flow path providing fluid communication between the fluid inlet and the fluid outlet, the fluid injector further comprising a valve, the valve controlling the flow of fluid through the fluid injector and including a valve body, the valve body having a distal end at which the fluid outlet is disposed; a housing in which the fluid injector is disposed; a clamp flange coupled to the housing and configured to engage with a mounting boss of a vehicle exhaust pipe; and a shield member having a first portion which is disposed downstream of the fluid outlet, relative to a direction of fluid flow in the fluid injector, and at least partly covers the fluid outlet, and a second portion which is disposed adjacent to and contacts the clamp flange and seals the engagement between the clamp flange and the mounting boss of the vehicle exhaust pipe when the reductant delivery unit is mounted thereto, characterized in that at least one of the first portion and the second portion includes a plurality of notches defined therethrough, the notches being evenly distributed around the at least one of the first portion and the second portion. a fluid injector having a fluid inlet, a fluid outlet and a fluid flow path providing fluid communication between the fluid inlet and the fluid outlet, the fluid injector further comprising a valve, the valve controlling the flow of fluid through the fluid injector and including a valve body, the valve body having a distal end at which the fluid outlet is disposed; a housing in which the fluid injector is disposed; a clamp flange coupled to the housing and configured to engage with a mounting boss of a vehicle exhaust pipe; and a shield member having a first portion which is disposed downstream of the fluid outlet, relative to a direction of fluid flow in the fluid injector, and at least partly covers the fluid outlet, and a second portion which is disposed adjacent to and contacts the clamp flange and seals the engagement between the clamp flange and the mounting boss of the vehicle exhaust pipe when the reductant delivery unit is mounted thereto, characterized in that at least one of the first portion and the second portion includes a plurality of notches defined therethrough, the notches being evenly distributed around the at least one of the first portion and the second portion.
A display device comprising: a display panel; a light blocking arrangement for selectively blocking light which is directed to a lateral output direction from the display panel; an array of lenses arranged in front of the display panel and in front of the light blocking arrangement, wherein the display panel has a polarized output and the display device is configurable in a privacy mode in which the light blocking arrangement blocks laterally directed light output from the display panel based on the polarization of the light and a public mode in which the light blocking arrangement allows light to pass which is directed to a lateral output direction, wherein the light blocking arrangement comprises a stack of layers, each layer comprising a pattern of light blocking arrangement portions of two different types (90, 92, 94, 96) such that in the stack of layers, the portions align to form light blocking members of two different types, wherein the light blocking arrangement portions of one type or of both types in the layer closest to the display panel comprise switchable polarization rotators, wherein each light blocking member is associated with an associated lens such that the light blocking members form a pattern with a repeating pattern pitch which is double the lens pitch and the light blocking members have a width corresponding to the lens width, wherein, in the privacy mode, the switchable polarization rotators are switched such that the light blocking members each allow the passage of normally directed light but block laterally directed light. a display panel; a light blocking arrangement for selectively blocking light which is directed to a lateral output direction from the display panel; an array of lenses arranged in front of the display panel and in front of the light blocking arrangement, wherein the display panel has a polarized output and the display device is configurable in a privacy mode in which the light blocking arrangement blocks laterally directed light output from the display panel based on the polarization of the light and a public mode in which the light blocking arrangement allows light to pass which is directed to a lateral output direction, wherein the light blocking arrangement comprises a stack of layers, each layer comprising a pattern of light blocking arrangement portions of two different types (90, 92, 94, 96) such that in the stack of layers, the portions align to form light blocking members of two different types, wherein the light blocking arrangement portions of one type or of both types in the layer closest to the display panel comprise switchable polarization rotators, wherein each light blocking member is associated with an associated lens such that the light blocking members form a pattern with a repeating pattern pitch which is double the lens pitch and the light blocking members have a width corresponding to the lens width, wherein, in the privacy mode, the switchable polarization rotators are switched such that the light blocking members each allow the passage of normally directed light but block laterally directed light.
A compound of formula: or a pharmaceutically acceptable salt thereof, wherein R 1 is selected from CH 2 D, CHD 2, and CD 3; and R 2 is selected from CH 3, CH 2 D, CHD 2, and CD 3, wherein any atom not designated as deuterium in the compound is present at its natural isotopic abundance, for use in a method for treating a subject suffering from or susceptible to Parkinson's Disease. wherein R 1 is selected from CH 2 D, CHD 2, and CD 3; and R 2 is selected from CH 3, CH 2 D, CHD 2, and CD 3, wherein any atom not designated as deuterium in the compound is present at its natural isotopic abundance,
An optical emission spectrometer or a mass spectrometer comprising a plasma generator, characterized in that the plasma generator comprises: a dielectric resonator structure having a ring shaped region with a longitudinal axis; a coupling antenna and a radio frequency power source electrically coupled to the dielectric resonator structure via the coupling antenna separated from the dielectric resonator structure to promote alternating polarization current flow at a natural resonant frequency of the dielectric resonator structure along a circumferential direction around the longitudinal axis to generate plasma in an adjacent gas, wherein: the dielectric resonator structure has a dielectric constant with a loss tangent of less than 0.01 and a dielectric constant of greater than five. a dielectric resonator structure having a ring shaped region with a longitudinal axis; a coupling antenna and a radio frequency power source electrically coupled to the dielectric resonator structure via the coupling antenna separated from the dielectric resonator structure to promote alternating polarization current flow at a natural resonant frequency of the dielectric resonator structure along a circumferential direction around the longitudinal axis to generate plasma in an adjacent gas, wherein: the dielectric resonator structure has a dielectric constant with a loss tangent of less than 0.01 and a dielectric constant of greater than five.
A method of manufacturing a ferrous oxide nanoparticle, comprising: a water removing step raising temperature of a solution containing an iron oxide, an organic acid dissolving the iron oxide, and a first solvent to a first temperature and removing water in the solution, the organic acid being an oleic acid and the first solvent being 1-octadecene; a second temperature maintaining step (S1103, S1105) raising the first temperature to a second temperature and maintaining the second temperature, the second temperature being a temperature equal to or lower than the boiling point of the first solvent and in consideration of the temperature in which a ferrous oxide core forms and the boiling point of the first solvent; and a particle extracting step extracting the ferrous oxide nanoparticle from the solution after the second temperature maintaining step (S1103, S1105), wherein the second temperature maintaining step (S1103, S1105) includes a step of adding a second solvent reacting with the organic acid, the second solvent being an oleylamine. a water removing step raising temperature of a solution containing an iron oxide, an organic acid dissolving the iron oxide, and a first solvent to a first temperature and removing water in the solution, the organic acid being an oleic acid and the first solvent being 1-octadecene; a second temperature maintaining step (S1103, S1105) raising the first temperature to a second temperature and maintaining the second temperature, the second temperature being a temperature equal to or lower than the boiling point of the first solvent and in consideration of the temperature in which a ferrous oxide core forms and the boiling point of the first solvent; and a particle extracting step extracting the ferrous oxide nanoparticle from the solution after the second temperature maintaining step (S1103, S1105), wherein the second temperature maintaining step (S1103, S1105) includes a step of adding a second solvent reacting with the organic acid, the second solvent being an oleylamine.
An engine oil lubricant composition comprising at least 65 wt% of a Group IV base oil having a kinematic viscosity at 100°C of 5 cSt or less; 1 wt% to 5 wt% of a Group IV base oil having a kinematic viscosity at 100°C of 100 cSt to 200 cSt; and 10 wt% to 15 wt% of a Group II base oil having a kinematic viscosity at 100°C of 5 cSt or less, wherein the weight percents are based on the total weight of the engine oil lubricant composition, and wherein the engine oil lubricant composition has a kinematic viscosity at 100°C of 6 cSt or less, an HTHS (ASTM D4683) of less than or equal to 2.2 cP at 150°C and a FZG failure load stage of at least 6, as measured by the FZG A10/16.6R/130 test procedure.
A print finishing method having the steps - supplying sheet-type printed products which are to be finished, - laminating, - coating and - film stamping of the sheet-type printed products, wherein the processing stages lamination, coating and film stamping take place in modular manner via standardised transfer interfaces, characterised in that the printed product to be finished in each processing module is first of all detected and aligned (22, 32, 43), the detection and alignment (22, 32, 42) taking place on a suction feedboard (21, 31, 41) associated with each processing module (2, 3, 4). - supplying sheet-type printed products which are to be finished, - laminating, - coating and - film stamping of the sheet-type printed products,
A flow restricting arrangement (200, 300) for use in a turbomachine, the flow restricting arrangement (200, 300) comprising: a stationary component; a rotating component spaced apart from the stationary component such that a clearance is defined between the stationary component and the rotating component; a first magnet embedded within the stationary component; a second magnet embedded within the rotating component; and a plurality of magnetically responsive particles contained within the clearance by a magnetic field produced by the first magnet and the second magnet, the plurality of magnetically responsive particles at least partially spanning the clearance. a stationary component; a rotating component spaced apart from the stationary component such that a clearance is defined between the stationary component and the rotating component; a first magnet embedded within the stationary component; a second magnet embedded within the rotating component; and a plurality of magnetically responsive particles contained within the clearance by a magnetic field produced by the first magnet and the second magnet, the plurality of magnetically responsive particles at least partially spanning the clearance.
A lithium secondary battery comprising: a positive electrode including a first lithium-metal oxide including secondary particles formed by aggregating primary particles having a particle diameter of less than 2 um and a second lithium-metal oxide including nickel and at least one or more metals selected from the group consisting of manganese and cobalt and including particles having a primary particle diameter of 2 um or more; a negative electrode; a separator interposed between the positive electrode and the negative electrode; and an electrolyte including a lithium salt, a nonaqueous organic solvent, and a difluorophosphite compound containing at least one or more difluorophosphite groups. a positive electrode including a first lithium-metal oxide including secondary particles formed by aggregating primary particles having a particle diameter of less than 2 um and a second lithium-metal oxide including nickel and at least one or more metals selected from the group consisting of manganese and cobalt and including particles having a primary particle diameter of 2 um or more; a negative electrode; a separator interposed between the positive electrode and the negative electrode; and an electrolyte including a lithium salt, a nonaqueous organic solvent, and a difluorophosphite compound containing at least one or more difluorophosphite groups.
A method for determining the concentration of a constituent of blood in a hose line, which can be alternately filled with blood and another fluid, in particular a hose line of an extracorporeal blood circuit of an extracorporeal blood treatment apparatus, wherein electromagnetic radiation is coupled by the hose line into the blood and the electromagnetic radiation (SS Hb) decoupled by the hose line from the blood is measured, and the concentration of the blood constituent is determined on the basis of a relationship describing the dependence of the concentration of the blood constituent on the intensity of the decoupled electromagnetic radiation, a correction factor (k) is ascertained for the influence of the hose line on the determination of the concentration of the blood constituent, and the concentration of the blood constituent is determined on the basis of the relationship describing the dependence of the concentration of the blood constituent on the intensity of the decoupled electromagnetic radiation, account being taken of the correction factor, in order to determine the correction factor, the relationship between the intensity of the decoupled electromagnetic radiation (SS Hb11) in the hose line filled with blood containing the blood constituent in a specific concentration and the hose line filled with a fluid other than blood (SS NaCL) is determined, the hose line is filled with a fluid other than blood and the intensity of the decoupled electromagnetic radiation is measured, and the correction factor is determined on the basis of the ascertained relationship between the intensity of the decoupled electromagnetic radiation in the hose line filled with blood and the hose line filled with a fluid other than blood, and on the basis of the measured intensity of the electromagnetic radiation which is decoupled from the hose line filled with a fluid other than blood, reference values for the correction factor are assigned to different types of hose lines, and the ascertained correction factor is compared with the reference values, which are assigned to the different types of hose lines, wherein it is concluded on the type of the employed hose line, if the ascertained correction factor corresponds to the respective reference value or the deviation from the reference value lies within predetermined limits.
A commutator of a motor comprising a body and hooks forming coil-receiving spaces between the body and inner surfaces of the hooks, wherein the hooks comprise recesses concavely formed on the inner surfaces of the hooks, Characterized in that a ratio of a thickness of the hooks to a depth of the recesses is in the range of 1:0.1 to 1:0.5, and wherein each recess comprises a plurality of serrations which are disposed on an inner surface of the recess.
Valve assembly arrangement for an injection valve the valve assembly arrangement having a central longitudinal axis and comprising a valve assembly of the inward opening type and a valve assembly of the outward opening type, wherein the valve assembly of the outward opening type is axially arranged adjacent to and fixedly coupled to the valve assembly of the inward opening type in such fashion that the valve assembly of the inward opening type is operable to inject fluid into the valve assembly of the outward opening type for increasing a fluid pressure in the valve assembly of the outward opening type to open the valve assembly of the outward opening type to enable dispensing of the fluid from the valve assembly arrangement.
A red phosphorescence compound being indicated as Formula 1 below: wherein is any one of the following chemical formulas:, and wherein represents an alkanedione selected from the group of 2,4-pentanedione, 2,2,6,6,-tetra-methylheptane-3,5-dione, 1,3-propanedione, 1,3-butanedione, 3,5-heptanedione, 1,1,1-trifluoro-2,4-pentanedione, 1,1,1,5,5,5-hexafluoro-2,4-pentanedione, and 2,2-dimethyl-3,5-hexanedione.
A bioreactor apparatus (200, 400, 500, 600, 800, 900) for a lung or a portion of a lung that includes a hierarchical vascular structure, comprising: an organ chamber (201, 401, 501, 601, 801, 901) configured to hold a lung matrix scaffold into which at least one fluid is perfused; an ingress line connecting the organ chamber and a reservoir system (203, 403, 503, 603, 803, 903), wherein the ingress line includes any of the following: a fluid line, an arterial line (210, 410, 511, 610, 810, 910), a venous line (211, 411, 512, 611, 811, 911), a tracheal line (212, 412, 513, 612, 812, 912), or an ingress pump; an egress line (217, 417) connecting the organ chamber and the reservoir system, wherein the egress line includes a bi-directional egress pump (205, 405, 505, 605, 805, 905); a controller (215, 415, 516, 615, 815, 915) configured to control fluid exchange between the organ chamber and the reservoir system through the ingress line and the egress line; and a chamber pressure sensor (207, 407, 508, 607, 807, 907) connected to the organ chamber, wherein the chamber pressure sensor is configured to record and transmit the chamber pressure to the controller, wherein, during negative pressure wet ventilation, the controller is to monitor pressure in the organ chamber using the chamber pressure sensor and correct for fluid shifts through the lung matrix into the organ chamber by adjusting direction and duration of the activation of the bi-directional egress pump. an organ chamber (201, 401, 501, 601, 801, 901) configured to hold a lung matrix scaffold into which at least one fluid is perfused; an ingress line connecting the organ chamber and a reservoir system (203, 403, 503, 603, 803, 903), wherein the ingress line includes any of the following: a fluid line, an arterial line (210, 410, 511, 610, 810, 910), a venous line (211, 411, 512, 611, 811, 911), a tracheal line (212, 412, 513, 612, 812, 912), or an ingress pump; an egress line (217, 417) connecting the organ chamber and the reservoir system, wherein the egress line includes a bi-directional egress pump (205, 405, 505, 605, 805, 905); a controller (215, 415, 516, 615, 815, 915) configured to control fluid exchange between the organ chamber and the reservoir system through the ingress line and the egress line; and a chamber pressure sensor (207, 407, 508, 607, 807, 907) connected to the organ chamber, wherein the chamber pressure sensor is configured to record and transmit the chamber pressure to the controller, wherein, during negative pressure wet ventilation, the controller is to monitor pressure in the organ chamber using the chamber pressure sensor and correct for fluid shifts through the lung matrix into the organ chamber by adjusting direction and duration of the activation of the bi-directional egress pump.
A method for a scheduled entity to communicate with a scheduling entity within a wireless communication network, comprising: estimating a timing advance value for communicating with the scheduling entity; selecting a random access channel, RACH, configuration utilizing the timing advance value; and transmitting a RACH signal utilizing the RACH configuration; wherein the RACH configuration comprises at least a waveform configuration of the RACH signal, wherein the waveform configuration comprises a cyclic prefix, CP, length and a guard time, GT, length, and wherein selecting the RACH configuration further comprises: setting each of the CP length and the GT length equal to a difference between an estimated maximum round-trip time, RTT, for communications between the scheduled entity and the scheduling entity and an estimated minimum RTT for communications between the scheduled entity and the scheduling entity. estimating a timing advance value for communicating with the scheduling entity; selecting a random access channel, RACH, configuration utilizing the timing advance value; and transmitting a RACH signal utilizing the RACH configuration; wherein the RACH configuration comprises at least a waveform configuration of the RACH signal, wherein the waveform configuration comprises a cyclic prefix, CP, length and a guard time, GT, length, and wherein selecting the RACH configuration further comprises: setting each of the CP length and the GT length equal to a difference between an estimated maximum round-trip time, RTT, for communications between the scheduled entity and the scheduling entity and an estimated minimum RTT for communications between the scheduled entity and the scheduling entity.