mhurhangee/ep-ind-claims huggingface dataset:
Pane having an electrically conductive coating, comprising a substrate and an electrically conductive coating on an exposed surface of the substrate, which coating, starting from the substrate, at least comprises - a blocking layer against alkali diffusion having a refractive index of at least 1.9, - a dielectric lower antireflection layer having a refractive index of 1.3 to 1.8, - an electrically conductive layer, - a dielectric barrier layer for regulating oxygen diffusion having a refractive index of at least 1.9, and - a dielectric upper antireflection layer having a refractive index of 1.3 to 1.8, wherein the upper antireflection layer is the uppermost layer of the coating, wherein the lower reflection layer and/or the upper reflection layer contain silicon oxide, aluminum oxide, magnesium fluoride, or calcium fluoride, wherein the lower reflection layer has a thickness from 10 nm to 20 nm and wherein the upper reflection layer has a thickness from 45 nm to 55 nm, wherein the pane has a local minimum of reflectance (R L) in the range from 310 nm to 360 nm and a local maximum of reflectance (R L) in the range from 400 nm to 460 nm. - a blocking layer against alkali diffusion having a refractive index of at least 1.9, - a dielectric lower antireflection layer having a refractive index of 1.3 to 1.8, - an electrically conductive layer, - a dielectric barrier layer for regulating oxygen diffusion having a refractive index of at least 1.9, and - a dielectric upper antireflection layer having a refractive index of 1.3 to 1.8, wherein the upper antireflection layer is the uppermost layer of the coating, wherein the lower reflection layer and/or the upper reflection layer contain silicon oxide, aluminum oxide, magnesium fluoride, or calcium fluoride, wherein the lower reflection layer has a thickness from 10 nm to 20 nm and wherein the upper reflection layer has a thickness from 45 nm to 55 nm, wherein the pane has a local minimum of reflectance (R L) in the range from 310 nm to 360 nm and a local maximum of reflectance (R L) in the range from 400 nm to 460 nm. wherein the lower reflection layer has a thickness from 10 nm to 20 nm and wherein the upper reflection layer has a thickness from 45 nm to 55 nm, wherein the pane has a local minimum of reflectance (R L) in the range from 310 nm to 360 nm and a local maximum of reflectance (R L) in the range from 400 nm to 460 nm.
A cleaning composition comprising at least one fatty acid of a sarcosine, and at least one fatty acid of an amino acid, and/or salts thereof; wherein the ratio of fatty acid of a sarcosine to fatty acid of an amino acid in the cleaning composition is in the range from 20:1 to 120:1.
A method for preventing malicious content from reaching a destination computer, the method comprising: receiving a plurality of data packets at an analysis computer that were forwarded (115, 135) by a firewall, wherein the plurality of data packets except for at least one data packet of the plurality of data packets are sent to the destination computer; executing instructions included in the plurality of data packets received at the analysis computer; observing one or more actions that are performed when the instructions included in the plurality of data packets received at the analysis computer are executed; identifying that the one or more observed actions include de-obfuscating instructions in the plurality of data packets received at the analysis computer that, when executed, would access inappropriate information or write to a sensitive data storage location; and identifying the plurality of data packets received at the analysis computer includes malware based on the identification of the instructions that would access the inappropriate information or write to the sensitive data storage location, wherein a connection associated with the at least one data packet not sent to the destination computer is then dropped (130, 250, 350, 460) by the firewall as a result of the malware being identified as present in the plurality of data packets received at the analysis computer. receiving a plurality of data packets at an analysis computer that were forwarded (115, 135) by a firewall, wherein the plurality of data packets except for at least one data packet of the plurality of data packets are sent to the destination computer; executing instructions included in the plurality of data packets received at the analysis computer; observing one or more actions that are performed when the instructions included in the plurality of data packets received at the analysis computer are executed; identifying that the one or more observed actions include de-obfuscating instructions in the plurality of data packets received at the analysis computer that, when executed, would access inappropriate information or write to a sensitive data storage location; and identifying the plurality of data packets received at the analysis computer includes malware based on the identification of the instructions that would access the inappropriate information or write to the sensitive data storage location, wherein a connection associated with the at least one data packet not sent to the destination computer is then dropped (130, 250, 350, 460) by the firewall as a result of the malware being identified as present in the plurality of data packets received at the analysis computer.
A method of producing a fatty acid alkyl ester using Rhodococcus opacus, the method comprising the steps of: (a) culturing Rhodococcus opacus having the ability to produce oil and transformed with a first gene encoding a triacyl glycerol lipase and a second gene encoding a monoacyl glycerol lipase, thus producing oil; (b) inducing the autolysis of the produced oil in Rhodococcus opacus to produce a free fatty acid, wherein the autolysis is carried out in Rhodococcus opacus by triacyl glycerol lipase and monoacyl glycerol lipase; and (c) adding an alcohol to the produced free fatty acid and reacting the alcohol with the free fatty acid to produce a fatty acid alkyl ester, wherein the first gene comprises SEQ ID NO: 19, and the second gene comprises M. smegmatis MAG lipase gene produced by PCR amplification of M. smegmatis genomic DNA with the primers of SEQ ID NO: 13 and SEQ ID NO: 14 according to Example 2. (a) culturing Rhodococcus opacus having the ability to produce oil and transformed with a first gene encoding a triacyl glycerol lipase and a second gene encoding a monoacyl glycerol lipase, thus producing oil; (b) inducing the autolysis of the produced oil in Rhodococcus opacus to produce a free fatty acid, wherein the autolysis is carried out in Rhodococcus opacus by triacyl glycerol lipase and monoacyl glycerol lipase; and (c) adding an alcohol to the produced free fatty acid and reacting the alcohol with the free fatty acid to produce a fatty acid alkyl ester, wherein the first gene comprises SEQ ID NO: 19, and the second gene comprises M. smegmatis MAG lipase gene produced by PCR amplification of M. smegmatis genomic DNA with the primers of SEQ ID NO: 13 and SEQ ID NO: 14 according to Example 2.
A method for producing 1,3-butadiene and/or 3-buten-2-ol, said method comprising the step of dehydrating 2,3-butanediol in the presence of scandium oxide.
System for controlling an opening cross section of at least one turbine inlet valve, via which a working fluid can be fed to a turbine, in particular a steam turbine, having at least one device for detecting an actual speed (n act) of the turbine, at least one device for detecting an actual power (Pact) of the turbine, at least one device for detecting an actual opening cross section (O act) of the turbine inlet valve and at least one control device, which can be connected in signalling terms to the devices (2, 3, 4) and is designed to determine a control difference (n set -n act) between a prescribed setpoint speed (n set) of the turbine and the detected actual speed (n act) of the turbine, and a control difference (P set -P act) between a prescribed setpoint power (P set) of the turbine and the detected actual power (Pact) of the turbine and to generate difference signals assigned to the individual control differences (n set -n act, P set -P act), characterized in that the control device is designed to determine a control difference (O set -O act) between a prescribed setpoint opening cross section (O set) of the turbine inlet valve and the detected actual opening cross section (O act) of the turbine inlet valve and to generate a difference signal assigned to this control difference (O set -O act), and in that the control device has at least one PI controller designed for controlling the opening cross section of the turbine inlet valve and is designed in such a way that optionally either just the difference signal assigned to the control difference (n set -n act) between the prescribed setpoint speed (n set) of the turbine and the detected actual speed (n act) of the turbine or on the one hand the difference signal assigned to the control difference (n set -n act) between the prescribed setpoint speed (n set) of the turbine and the detected actual speed (n act) of the turbine and on the other hand optionally either the difference signal assigned to the control difference (P set -P act) between the prescribed setpoint power (P set) of the turbine and the detected actual power (Pact) of the turbine or the difference signal assigned to the control difference (O set -O act) between the prescribed setpoint opening cross section (O set) of the turbine inlet valve and the detected actual opening cross section (O act) of the turbine inlet valve can be fed as an input signal or as input signals to the PI controller.
A method of wireless communication by a user equipment, LTE, comprising: receiving configuration information for uplink, LTL, and downlink, DL, transmissions; determining a maximum duty cycle of an UL transmission based on the configuration information; the method characterized in that determining the maximum duty cycle is based on assuming that flexible time intervals capable of being used for UL or DL transmission are allocated for UL transmission; and wherein the maximum duty cycle corresponds to a ratio of UL intervals and the flexible time intervals to a periodicity of a time domain duplex, TDD, pattern; and determining a transmit power for the UL transmission based on the maximum duty cycle of the UL transmission. receiving configuration information for uplink, LTL, and downlink, DL, transmissions; determining a maximum duty cycle of an UL transmission based on the configuration information; the method characterized in that determining the maximum duty cycle is based on assuming that flexible time intervals capable of being used for UL or DL transmission are allocated for UL transmission; and wherein the maximum duty cycle corresponds to a ratio of UL intervals and the flexible time intervals to a periodicity of a time domain duplex, TDD, pattern; and determining a transmit power for the UL transmission based on the maximum duty cycle of the UL transmission.
An electronic device comprising: a first interface configured to communicate with another electronic device within a network according to a first communication standard, which supports a first communication bandwidth; a second interface configured to communicate with the another electronic device within the network according to a second communication standard, which supports a second communication bandwidth that is greater than the first communication bandwidth, wherein the first communication standard is a High-Definition Multimedia Interface/Consumer Electronics Control, HDMI/CEC, standard, and the second communication standard is Ethernet; the electronic device is configured with a first network address relating to the first communication standard and a second network address relating to the second communication standard, the first network address being a Consumer Electronics Control, CEC, logical address and the second network address being an IP address; the electronic device is further configured to store a list of first and second addresses of other electronic devices of the network, the respective first addresses being linked to the respective second addresses of the respective electronic devices, and to communicate data with the another electronic device by using the first interface and the second interface based on an amount of the data to be communicated. a first interface configured to communicate with another electronic device within a network according to a first communication standard, which supports a first communication bandwidth; a second interface configured to communicate with the another electronic device within the network according to a second communication standard, which supports a second communication bandwidth that is greater than the first communication bandwidth, wherein the first communication standard is a High-Definition Multimedia Interface/Consumer Electronics Control, HDMI/CEC, standard, and the second communication standard is Ethernet; the electronic device is configured with a first network address relating to the first communication standard and a second network address relating to the second communication standard, the first network address being a Consumer Electronics Control, CEC, logical address and the second network address being an IP address; the electronic device is further configured to store a list of first and second addresses of other electronic devices of the network, the respective first addresses being linked to the respective second addresses of the respective electronic devices, and to communicate data with the another electronic device by using the first interface and the second interface based on an amount of the data to be communicated.
A shoe sole member partially or entirely formed by a crosslinked foam, wherein the crosslinked foam has been formed by crosslinking and foaming a polymer composition and satisfies formulas and below that are determined by measuring a spin-spin relaxation time at 23°C by pulsed NMR utilizing the procedure and equipment as described in the description, and formula below that is determined in dynamic viscoelasticity measurement by measuring a complex elastic modulus under conditions of a frequency of 1 Hz, a distortion of 0.025%, a rate of temperature increase of 2°C/min: F S / T 2 ⁢ S ≥ 10 0.10 ≤ F M ⋅ T 2 ⁢ M + F L ⋅ T 2 ⁢ L ≤ 0.30 where "Fs" in formula above represents a content ratio of S phase having a spin-spin relaxation time of less than 0.02 ms in the crosslinked foam, and "T 2S " represents the spin-spin relaxation time of S phase, "F M " in formula above represents a content ratio of M phase having a spin-spin relaxation time of 0.02 ms or more and less than 0.1 ms in the crosslinked foam, and "T 2M " represents the spin-spin relaxation time of M phase, "F L " in formula above represents a content ratio of L phase having a spin-spin relaxation time of 0.1 ms or more in the crosslinked foam, and "T 2L " represents the spin-spin relaxation time of L phase, unit of F S /T 2S is "1/ms", and unit of F M ·T 2M + F L ·T 2L is "ms"; and E * 80 ° C / E * 23 ° C ≥ 0.1 where "E* (80°C)" in formula above represents a complex elastic modulus at 80°C, and "E* (23°C)" in formula above represents a complex elastic modulus at 23°C. where "Fs" in formula above represents a content ratio of S phase having a spin-spin relaxation time of less than 0.02 ms in the crosslinked foam, and "T 2S " represents the spin-spin relaxation time of S phase, "F M " in formula above represents a content ratio of M phase having a spin-spin relaxation time of 0.02 ms or more and less than 0.1 ms in the crosslinked foam, and "T 2M " represents the spin-spin relaxation time of M phase, "F L " in formula above represents a content ratio of L phase having a spin-spin relaxation time of 0.1 ms or more in the crosslinked foam, and "T 2L " represents the spin-spin relaxation time of L phase, unit of F S /T 2S is "1/ms", and unit of F M ·T 2M + F L ·T 2L is "ms"; and E * 80 ° C / E * 23 ° C ≥ 0.1 where "E* (80°C)" in formula above represents a complex elastic modulus at 80°C, and "E* (23°C)" in formula above represents a complex elastic modulus at 23°C. where "E* (80°C)" in formula above represents a complex elastic modulus at 80°C, and "E* (23°C)" in formula above represents a complex elastic modulus at 23°C.
Device for characterizing the rough profile of a tissue sample, comprising: - a laser source that illuminates the surface of the tissue with a continuous wave laser beam; and - a photodetector that receives the light scattered in reflection by the surface of the tissue illuminated by the laser beam; characterized in that it further comprises - a displacement means configured to alternate between: a first position wherein a rotating ground glass plate is disposed within the path of the laser beam towards the surface; a second position wherein a rotating half wave blade is disposed within the path of the laser beam towards the surface; and a third position wherein neither the ground glass plate nor the half wave blade are arranged within the path of the laser beam towards the surface, or the half wave blade in a fixed non-rotating position. - a laser source that illuminates the surface of the tissue with a continuous wave laser beam; and - a photodetector that receives the light scattered in reflection by the surface of the tissue illuminated by the laser beam; - a displacement means configured to alternate between: a first position wherein a rotating ground glass plate is disposed within the path of the laser beam towards the surface; a second position wherein a rotating half wave blade is disposed within the path of the laser beam towards the surface; and a third position wherein neither the ground glass plate nor the half wave blade are arranged within the path of the laser beam towards the surface, or the half wave blade in a fixed non-rotating position. a first position wherein a rotating ground glass plate is disposed within the path of the laser beam towards the surface; a second position wherein a rotating half wave blade is disposed within the path of the laser beam towards the surface; and a third position wherein neither the ground glass plate nor the half wave blade are arranged within the path of the laser beam towards the surface, or the half wave blade in a fixed non-rotating position.
Device for inserting and positioning a probe for measuring data from a fluid inside a channel, said probe being provided with a body provided with a head containing at least one sensor and said channel being provided with an access door which defines an insertion axis for the insertion of the head and being associated with shut-off means of the fluid operable between a closed configuration sealing the access to the channel and an open configuration for access to the channel, said device, comprising: - a guide, hollow inside, suitable to be coupled to the shut-off means so as to realise a passage coaxial to the access door; - a probe-holder provided with a hollow body suitable to contain the probe at least partially, said body being engageable inside the guide in such a way as to permit the insertion of the head in the right position in the lumen of the flow flowing in the channel; - coupling means (215, 315) of the guide and the probe-holder suitable to guide the axial sliding of the probe-holder in the guide and to axially block the probe-holder in the guide in the open configuration to withstand the pressure of the fluid; characterized in that the coupling means comprise at least one groove, made on the outer surface of the body of the probe-holder, and at least one pin engageable and sliding in the groove, projecting inside the body of the guide, or vice versa, and in that the device extends mainly along a longitudinal axis of the device coincident, during coupling with the shut-off means, with the insertion axis, and wherein the groove extends substantially in a helicoid around the axis. - a guide, hollow inside, suitable to be coupled to the shut-off means so as to realise a passage coaxial to the access door; - a probe-holder provided with a hollow body suitable to contain the probe at least partially, said body being engageable inside the guide in such a way as to permit the insertion of the head in the right position in the lumen of the flow flowing in the channel; - coupling means (215, 315) of the guide and the probe-holder suitable to guide the axial sliding of the probe-holder in the guide and to axially block the probe-holder in the guide in the open configuration to withstand the pressure of the fluid; characterized in that the coupling means comprise at least one groove, made on the outer surface of the body of the probe-holder, and at least one pin engageable and sliding in the groove, projecting inside the body of the guide, or vice versa,
A user equipment, UE, (102, 902, 1102) that communicates with a base station apparatus (160, 1060, 1260) on serving cells comprising a primary cell and one or more secondary cells, comprising: receiving unit (120, 920, 1120) configured to receive a radio resource control, RRC, message comprising first information configuring a code block group, CBG, based transmission for a physical downlink shared channel, PDSCH, the receiving unit (120, 920, 1120) configured to receive a RRC message comprising second information configuring a maximum number of CBGs per transport block, the receiving unit (120, 920, 1120) is configured to receive a RRC message comprising third information configuring whether a CBG flush indicator is present in a first downlink control information, DCI, format, the first DCI format being used for scheduling of the PDSCH, wherein in a case that the CBG flush indicator is present in the first DCI format, the number of the CBG flush indicator is always 1 bit, and processing unit (124, 903, 1124) configured to determine the number of bits for CBG transmission information comprised in the first DCI format, wherein in a case that the first information is configured, the number of bits for the CBG transmission information comprised in the first DCI format is determined based on the second information, the first information and the second information are configured for each of the primary cell and the one or more secondary cells, and cyclic redundancy check, CRC, scrambled by a cell-radio network temporary identifier, C-RNTI, is attached to the first DCI format. receiving unit (120, 920, 1120) configured to receive a radio resource control, RRC, message comprising first information configuring a code block group, CBG, based transmission for a physical downlink shared channel, PDSCH, the receiving unit (120, 920, 1120) configured to receive a RRC message comprising second information configuring a maximum number of CBGs per transport block, the receiving unit (120, 920, 1120) is configured to receive a RRC message comprising third information configuring whether a CBG flush indicator is present in a first downlink control information, DCI, format, the first DCI format being used for scheduling of the PDSCH, wherein in a case that the CBG flush indicator is present in the first DCI format, the number of the CBG flush indicator is always 1 bit, and processing unit (124, 903, 1124) configured to determine the number of bits for CBG transmission information comprised in the first DCI format, wherein in a case that the first information is configured, the number of bits for the CBG transmission information comprised in the first DCI format is determined based on the second information, the first information and the second information are configured for each of the primary cell and the one or more secondary cells, and cyclic redundancy check, CRC, scrambled by a cell-radio network temporary identifier, C-RNTI, is attached to the first DCI format.