mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a denture with production of the denture with a core and an outer layer, wherein the core and the outer layer define a boundary face between them, characterised in that the path of the boundary face depicts a natural path of the dentine/enamel boundary of a tooth for which the denture is provided, wherein the path of the boundary face (i) is determined on the basis of a recording carried out using computer tomography, sonography, X-ray imaging, close-range photogrammetry and/or photography of the dentine/enamel boundary of the tooth for which the denture is provided and/or (ii) is determined on the basis of indirectly or directly recorded geometry data of the outer geometry of the tooth for which the denture is provided, using a database with tooth data sets, wherein in the tooth data sets a tooth outer geometry is stored with an associated layered tooth inner geometry. (i) is determined on the basis of a recording carried out using computer tomography, sonography, X-ray imaging, close-range photogrammetry and/or photography of the dentine/enamel boundary of the tooth for which the denture is provided and/or (ii) is determined on the basis of indirectly or directly recorded geometry data of the outer geometry of the tooth for which the denture is provided, using a database with tooth data sets, wherein in the tooth data sets a tooth outer geometry is stored with an associated layered tooth inner geometry.
A memory device comprising: memory cells; a mode register to contain a value to indicate whether post package repair, PPR, is disabled for the memory device; and device processing logic to: receive a PPR command to execute PPR, and in response to receipt of the command, selectively execute or not execute PPR for one or more of the memory cells based on the value in the mode register, wherein the device processing logic is operable to selectively not execute PPR based on a determination that the value in the mode register indicates PPR is disabled. memory cells; a mode register to contain a value to indicate whether post package repair, PPR, is disabled for the memory device; and device processing logic to: receive a PPR command to execute PPR, and in response to receipt of the command, selectively execute or not execute PPR for one or more of the memory cells based on the value in the mode register, wherein the device processing logic is operable to selectively not execute PPR based on a determination that the value in the mode register indicates PPR is disabled. receive a PPR command to execute PPR, and in response to receipt of the command, selectively execute or not execute PPR for one or more of the memory cells based on the value in the mode register, wherein the device processing logic is operable to selectively not execute PPR based on a determination that the value in the mode register indicates PPR is disabled.
A battery comprising a positive electrode plate, a separator, and a negative electrode plate, characterized in that, the positive electrode plate comprises a positive electrode current collector and at least two layers of positive active material coated on at least one surface of the positive electrode current collector;and that an underlying positive active material layer in contact with the positive electrode current collector comprises a first positive active material, a first polymer material and a first conductive material, and based on the total weight of the underlying layer positive active material layer, the first positive active material has a content of A% by weight, the first polymer material has a content of B% by weight, and the first conductive material has a content of C% by weight; and that an upper positive active material layer in contact with the underlying positive active material layer and away from the positive electrode current collector comprises a second positive active material, a second polymer material and a second conductive material, and based on the total weight of the upper positive active material layer, the second positive active material has a content of A'% by weight, the second polymer material has a content of B'% by weight, and the second conductive material has a content of C'% by weight; that A% < A'%, B% > B'%, C% ≥ C'%; and that the first polymer material comprises fluorinated polyolefin and/or chlorinated polyolefin polymer material, and the second positive active material comprises Li 1+x Ni a Co b Me (1-a-b) O 2, in which -0.1 ≤x≤0.2, 0.6≤a≤1,0<b<1,0<(1-a-b)<1, and Me is selected from at least one of Mn, Al, Mg, Zn, Ga, Ba, Fe, Cr, Sn, V, Sc, Ti and Zr, and the positive electrode current collector is a porous aluminum-containing current collector; and that the first positive active material satisfies 10 wt% ≤ A% ≤ 60 wt%.; and that the first polymer material satisfies 35 wt% ≤ B% ≤ 75 wt%.
A Pod for an aerosol-generating device comprising a porous wick; a reservoir including a discharge opening for an aerosol-generating liquid material; and at least one light emitting source, wherein the porous wick is coated with a light-switchable layer on a surface thereof sealing the discharge opening of the reservoir so that the light-switchable layer is arranged between the discharge opening of the reservoir and the porous wick, wherein the light-switchable layer comprises an amphiphilic inorganic material being hydrophobic and impermeable for an aerosol-generating liquid material in the dark and becoming hydrophilic and permeable for an aerosol-generating liquid material when exposed to light, and wherein the at least one light emitting source is configured to illuminate the light-switchable layer. a porous wick; a reservoir including a discharge opening for an aerosol-generating liquid material; and at least one light emitting source, wherein the porous wick is coated with a light-switchable layer on a surface thereof sealing the discharge opening of the reservoir so that the light-switchable layer is arranged between the discharge opening of the reservoir and the porous wick, wherein the light-switchable layer comprises an amphiphilic inorganic material being hydrophobic and impermeable for an aerosol-generating liquid material in the dark and becoming hydrophilic and permeable for an aerosol-generating liquid material when exposed to light, and wherein the at least one light emitting source is configured to illuminate the light-switchable layer.
A floating platform for a spider excavator comprising a central hub configured to couple with the underside of the spider excavator, the said central hub comprising two floating members, each floating member is removably connected to a lateral side of the central hub, and a removable floating tank coupled to each free end of the said floating members, characterized in that the floating member is widen toward its free end, said free end is equipped with a pair of spaced-apart coupling wings machined to possess a shape and configuration corresponding to those of a pair of spaced-apart coupling faces prepared on the floating tank at a position corresponding to the position of the coupling wing on the floating member permitting securing of the floating tank to the floating member at the said coupling wing and the said coupling face, and in that the said floating member includes wheels arranged at the lower portion of the coupling wing to facilitate moving and loading and unloading.
Apparatus for detecting the presence of a mobile device in a room, the device having - an device control unit for controlling a target device, - a mobile device for controlling the target device via the device control unit, - a signal source for emitting a pilot signal, - a signal receiver for receiving a room signal caused by the pilot signal, the signal receiver being arranged in spatial proximity to the mobile device such that the signal receiver and the mobile device are together in the room during normal operation, and being adapted to output a measurement signal in response to the received room signal, - a signal control unit for controlling the signal source, characterized in that - the signal control unit is configured to control the signal source as a function of an actual value signal obtained from the measurement signal in such a way that an approximation of the actual value signal to a predeterminable desired value signal takes place over time, and - the device control unit is adapted to make the target device be controlled by the mobile device depending on whether the approximation has taken place, which is an indication that the mobile device is in the same room as the signal source - wherein the signal source is adapted to transmit an optical signal and the signal receiver is adapted to receive an optical signal. - an device control unit for controlling a target device, - a mobile device for controlling the target device via the device control unit, - a signal source for emitting a pilot signal, - a signal receiver for receiving a room signal caused by the pilot signal, the signal receiver being arranged in spatial proximity to the mobile device such that the signal receiver and the mobile device are together in the room during normal operation, and being adapted to output a measurement signal in response to the received room signal, - a signal control unit for controlling the signal source, - the signal control unit is configured to control the signal source as a function of an actual value signal obtained from the measurement signal in such a way that an approximation of the actual value signal to a predeterminable desired value signal takes place over time, and - the device control unit is adapted to make the target device be controlled by the mobile device depending on whether the approximation has taken place, which is an indication that the mobile device is in the same room as the signal source - wherein the signal source is adapted to transmit an optical signal and the signal receiver is adapted to receive an optical signal.
A method for producing a dispersion of a reaction product between first and second substances, the method comprising the step of: electrostatically spraying the first substance which is dissolved or dispersed in a first liquid, from a spray port of a nozzle which is: disposed in a phase of a low dielectric liquid out of two phases of a phase of a second liquid and the phase of the low dielectric liquid arranged one on top of the other with two-phase separation; or disposed at a position apart from the two phases but close to the phase of the low dielectric liquid in such a manner that the spray port of the nozzle is oriented to a liquid surface of the phase of the low dielectric liquid, while an electrode is disposed in the phase of the second liquid, and the second substance is dissolved or dispersed in any one of a second liquid and a low dielectric liquid, so that droplets, charged by generating a potential difference between the nozzle and the electrode, of the first liquid in which the first substance has been dissolved or dispersed, are electrostatically sprayed from the spray port of the nozzle, and the first liquid which has been electrostatically sprayed, passes through the phase of the low dielectric liquid and reaches the phase of the second liquid to obtain the reaction product dispersed in the phase of the second liquid or in the phase of the low dielectric liquid. electrostatically spraying the first substance which is dissolved or dispersed in a first liquid, from a spray port of a nozzle which is: disposed in a phase of a low dielectric liquid out of two phases of a phase of a second liquid and the phase of the low dielectric liquid arranged one on top of the other with two-phase separation; or disposed at a position apart from the two phases but close to the phase of the low dielectric liquid in such a manner that the spray port of the nozzle is oriented to a liquid surface of the phase of the low dielectric liquid, disposed in a phase of a low dielectric liquid out of two phases of a phase of a second liquid and the phase of the low dielectric liquid arranged one on top of the other with two-phase separation; or disposed at a position apart from the two phases but close to the phase of the low dielectric liquid in such a manner that the spray port of the nozzle is oriented to a liquid surface of the phase of the low dielectric liquid, while an electrode is disposed in the phase of the second liquid, and the second substance is dissolved or dispersed in any one of a second liquid and a low dielectric liquid, so that droplets, charged by generating a potential difference between the nozzle and the electrode, of the first liquid in which the first substance has been dissolved or dispersed, are electrostatically sprayed from the spray port of the nozzle, and the first liquid which has been electrostatically sprayed, passes through the phase of the low dielectric liquid and reaches the phase of the second liquid to obtain the reaction product dispersed in the phase of the second liquid or in the phase of the low dielectric liquid.
An isolated peptide consisting of SEQ ID NO: 32, or a fragment thereof comprising at least 13 contiguous amino acids, the peptide or fragment enhances cytotoxicity receptor natural killer protein 44 binding to tumor cells compared to NKp44 binding to tumor cells without said peptide.
A process for producing highly pure acetonitrile, which comprises mixing hydrous crude acetonitrile with an alkali, separating the resulting mixture into an acetonitrile phase and an aqueous phase, removing the aqueous phase to reduce the moisture contained in the acetonitrile to 10 % by weight or less, distilling the resulting acetonitrile phase from 0.05 MPa to 0.27 MPa of pressure of the distillation tower to obtain purified acetonitrile, and passing the resulting purified acetonitrile through a cation-exchange resin to obtain highly pure acetonitrile, wherein the highly pure acetonitrile is highly pure acetonitrile having a content of propionitrile of 150 ppm by weight or less and an absorbance in ultraviolet absorption at 200 nm of 0.3 abs/cm or less.
A controller for a work machine including a master axis drive corresponding to a master axis and a slave axis drive corresponding to a slave axis, the work machine being configured to cause the slave axis drive to perform a predetermined task on a workpiece, the controller being configured to perform synchronization control of a position of the slave axis drive based on an electronic cam profile corresponding to a cam angle of the master axis, the controller comprising: an obtainer configured to obtain a predetermined position based on the electronic cam profile in response to stop of synchronization control over the master axis drive and the slave axis drive, the predetermined position being a position of the slave axis drive corresponding to a cam angle of the stopped master axis; and a return unit configured to move the slave axis drive to the predetermined position on a return path by driving the slave axis drive; characterized in that the controller further comprises a calculator configured to calculate, in response to the stopped slave axis drive being determined to be at a position deviating from the predetermined position, the return path based on the predetermined position and an interference section in which the slave axis drive interferes with the workpiece for the predetermined task, the interference section being in a range of cycles for the slave axis drive, the return path causing the slave axis drive to reach the predetermined position while avoiding the interference section. an obtainer configured to obtain a predetermined position based on the electronic cam profile in response to stop of synchronization control over the master axis drive and the slave axis drive, the predetermined position being a position of the slave axis drive corresponding to a cam angle of the stopped master axis; and a return unit configured to move the slave axis drive to the predetermined position on a return path by driving the slave axis drive; characterized in that the controller further comprises a calculator configured to calculate, in response to the stopped slave axis drive being determined to be at a position deviating from the predetermined position, the return path based on the predetermined position and an interference section in which the slave axis drive interferes with the workpiece for the predetermined task, the interference section being in a range of cycles for the slave axis drive, the return path causing the slave axis drive to reach the predetermined position while avoiding the interference section.
A spray bar injector comprising: a spray bar defining a longitudinal axis and including a fluid inlet and a plurality of spray outlet orifices spaced apart longitudinally in a direction along the longitudinal axis, characterised in that the spray bar injector comprises: a check valve operatively connected to each spray outlet orifice; a master valve in fluid communication with the fluid inlet, operatively connected to: divert flow from the fluid inlet into a first passage and block flow into a second passage in a first position to open the check valves and issue a spray from the spray outlet orifices; and divert flow from the fluid inlet into the second passage and block flow into the first passage in a second position to close the check valves and block issue of spray from the spray outlet orifices. a spray bar defining a longitudinal axis and including a fluid inlet and a plurality of spray outlet orifices spaced apart longitudinally in a direction along the longitudinal axis, characterised in that the spray bar injector comprises: a check valve operatively connected to each spray outlet orifice; a master valve in fluid communication with the fluid inlet, operatively connected to: divert flow from the fluid inlet into a first passage and block flow into a second passage in a first position to open the check valves and issue a spray from the spray outlet orifices; and divert flow from the fluid inlet into the second passage and block flow into the first passage in a second position to close the check valves and block issue of spray from the spray outlet orifices. a check valve operatively connected to each spray outlet orifice; a master valve in fluid communication with the fluid inlet, operatively connected to: divert flow from the fluid inlet into a first passage and block flow into a second passage in a first position to open the check valves and issue a spray from the spray outlet orifices; and divert flow from the fluid inlet into the second passage and block flow into the first passage in a second position to close the check valves and block issue of spray from the spray outlet orifices. divert flow from the fluid inlet into a first passage and block flow into a second passage in a first position to open the check valves and issue a spray from the spray outlet orifices; and divert flow from the fluid inlet into the second passage and block flow into the first passage in a second position to close the check valves and block issue of spray from the spray outlet orifices.
A method for operating an industrial truck, wherein the industrial truck comprises a lifting mechanism, wherein a fork carrier comprising two fork prongs is or will be height-adjustable guided on the lifting mechanism, wherein an individual rack bay label (31, 32, 33) provided on a rack bay (F1, F2, F3) of a storage rack, particularly a high-bay storage rack, is captured as digital image data by means of a digital camera disposed on a fork prong or on the fork carrier, wherein the digital images are transmitted from the digital camera to a computer unit of the industrial truck, wherein the digital image data is analyzed by the computer unit and transmitted after the analysis to a display panel of the industrial truck, particularly a display unit, and information corresponding to the captured rack bay label (31, 32, 33) of the rack bay (F1, F2, F3), particularly text information and/or symbols, is displayed on the display panel of the industrial truck.
A method for decorating glass or ceramic items, with the following method steps: • coating of a substrate by: • applying a lower layer of a glass frit formulation; • applying an image as at least one, preferably exclusively one, layer of at least one pigment formulation directly onto the lower layer of the glass frit formulation by means of an inkjet printing process; • applying an upper layer of a glass frit formulation onto the layer of at least one pigment formulation; • heating the glass or ceramic item with the layers (2, 3, 4) at least to melting temperature of the glass frit particles of the lower and upper layer (2, 4), characterized in that the upper layer of the glass frit formulation is applied by means of an inkjet process. • coating of a substrate by: • applying a lower layer of a glass frit formulation; • applying an image as at least one, preferably exclusively one, layer of at least one pigment formulation directly onto the lower layer of the glass frit formulation by means of an inkjet printing process; • applying an upper layer of a glass frit formulation onto the layer of at least one pigment formulation; • applying a lower layer of a glass frit formulation; • applying an image as at least one, preferably exclusively one, layer of at least one pigment formulation directly onto the lower layer of the glass frit formulation by means of an inkjet printing process; • applying an upper layer of a glass frit formulation onto the layer of at least one pigment formulation; • heating the glass or ceramic item with the layers (2, 3, 4) at least to melting temperature of the glass frit particles of the lower and upper layer (2, 4),
Active electrode material composed of an oxide of Na and Ti with a structure corresponding to the layered structure of the compound Na 2 Ti 3 O 7, said oxide conforming to the formula Na x Ti a Ti b M c O 7, in which: - x denotes the number of Na + ions inserted between the layers, per Ti 3 O 7 structural unit, with 0<x≤5; - Ti and Ti represent titanium in the oxidation states IV and III, respectively; - M represents one or more elements selected from 3d transition metals and 4d transition metals; - the values of x, a, b and c are such that the compound is electronically neutral in view of the oxidation state of the element or elements represented by M, the electroneutrality corresponding to the following conditions: a+b+c = 3, x+4a+3b+mc = 14, m being the weighted average of the different oxidation states of the same element M or of the oxidation states of different elements M; - the ratio (a+b)/c is greater than 0.5; - it being understood that when c = 0, said oxide corresponds, in the partially reduced state, to the formula Na x Ti a Ti b O 7, with 2<x≤5, a+b = 3, x+4a+3b = 14; and in the completely reduced state, to the formula Na 5 Ti 3 O 7. - x denotes the number of Na + ions inserted between the layers, per Ti 3 O 7 structural unit, with 0<x≤5; - Ti and Ti represent titanium in the oxidation states IV and III, respectively; - M represents one or more elements selected from 3d transition metals and 4d transition metals; - the values of x, a, b and c are such that the compound is electronically neutral in view of the oxidation state of the element or elements represented by M, the electroneutrality corresponding to the following conditions: a+b+c = 3, x+4a+3b+mc = 14, m being the weighted average of the different oxidation states of the same element M or of the oxidation states of different elements M; - the ratio (a+b)/c is greater than 0.5; - it being understood that when c = 0, said oxide corresponds, in the partially reduced state, to the formula Na x Ti a Ti b O 7, with 2<x≤5, a+b = 3, x+4a+3b = 14; and in the completely reduced state, to the formula Na 5 Ti 3 O 7.