mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a nickel cobalt complex hydroxide represented by a general formula: Ni 1-x Co x M z 2+a, wherein 0.10≤x≤0.35, 0<z≤0.05, 0≤a≤0.5, M is at least one element selected from a group consisting of Al, Mg, Ca, Ti, Zr, Nb, Ta, Cr, Mo, W, Fe, Cu, Si, Sn, Bi, Ga, Y, Sm, Er, Ce, Nd, La, Cd and Lu, the method comprising: first crystallization of supplying a solution containing nickel and cobalt, a solution of a complex ion forming agent, and a basic solution, separately and simultaneously to one reaction container to obtain a nickel cobalt complex hydroxide particles; and second crystallization of, after the first crystallization, further supplying a solution containing nickel and cobalt, a solution of a complex ion forming agent, a basic solution, and a solution containing said element M separately and simultaneously to the reaction container to crystallize complex hydroxide particles containing nickel, cobalt, and said element M on the nickel cobalt complex hydroxide particles; wherein assuming that a total molar amount of nickel and cobalt supplied in the first crystallization is MOL and that total molar amount of nickel and cobalt fed in the second crystallization is MOL, MOL and MOL satisfy an inequality of 0.30≤MOL /{MOL +MOL}<0.95. first crystallization of supplying a solution containing nickel and cobalt, a solution of a complex ion forming agent, and a basic solution, separately and simultaneously to one reaction container to obtain a nickel cobalt complex hydroxide particles; and second crystallization of, after the first crystallization, further supplying a solution containing nickel and cobalt, a solution of a complex ion forming agent, a basic solution, and a solution containing said element M separately and simultaneously to the reaction container to crystallize complex hydroxide particles containing nickel, cobalt, and said element M on the nickel cobalt complex hydroxide particles; wherein assuming that a total molar amount of nickel and cobalt supplied in the first crystallization is MOL and that total molar amount of nickel and cobalt fed in the second crystallization is MOL, MOL and MOL satisfy an inequality of 0.30≤MOL /{MOL +MOL}<0.95.
An apparatus, comprising: an encoder for encoding picture data for a block in a picture using adaptive geometric partitioning, wherein a geometric partitioning for said block corresponds to partitioning said block into two regions separated by a partition boundary line of said geometric partitioning, said geometric partitioning being defined by a distance measured from a center of said block to said partition boundary line in the orthogonal direction of said partition boundary line and an angle measured with respect to said orthogonal direction of said partition boundary line and an horizontal coordinate axis, wherein a distance step and an angle step are used to sample a distance space and an angle space to construct an adaptive geometric partition dictionary used to code the picture data for the block, characterised in that the distance step and the angle step being a function of the distance from the center of said block to the partition boundary line, the distance and the angle being sampled non-uniformly. an encoder for encoding picture data for a block in a picture using adaptive geometric partitioning, wherein a geometric partitioning for said block corresponds to partitioning said block into two regions separated by a partition boundary line of said geometric partitioning, said geometric partitioning being defined by a distance measured from a center of said block to said partition boundary line in the orthogonal direction of said partition boundary line and an angle measured with respect to said orthogonal direction of said partition boundary line and an horizontal coordinate axis, wherein a distance step and an angle step are used to sample a distance space and an angle space to construct an adaptive geometric partition dictionary used to code the picture data for the block, characterised in that the distance step and the angle step being a function of the distance from the center of said block to the partition boundary line, the distance and the angle being sampled non-uniformly.
A method for allocating a temporary radio network temporary identifier, T-RNTI, to a user equipment, UE, within a random access procedure in a wireless communication system, the method comprising: transmitting, by the UE, a random access preamble to a base station, BS; transmitting, by the UE, a radio resource control, RRC, request message to the BS; and receiving, by the UE, an RRC connection setup message identified by a T-RNTI allocated to the UE in response to the RRC request message, characterized in that the RRC request message is transmitted from the UE to the BS on a contention-based physical uplink shared channel, PUSCH, resource block without receiving a random access response in response to the random access preamble, wherein uplink data on the contention-based PUSCH resource block can be transmitted without uplink resource allocation scheduling, wherein the T-RNTI is allocated on the basis of the contention-based PUSCH resource block in which the RRC request message has been transmitted. transmitting, by the UE, a random access preamble to a base station, BS; transmitting, by the UE, a radio resource control, RRC, request message to the BS; and receiving, by the UE, an RRC connection setup message identified by a T-RNTI allocated to the UE in response to the RRC request message, characterized in that the RRC request message is transmitted from the UE to the BS on a contention-based physical uplink shared channel, PUSCH, resource block without receiving a random access response in response to the random access preamble, wherein uplink data on the contention-based PUSCH resource block can be transmitted without uplink resource allocation scheduling, wherein the T-RNTI is allocated on the basis of the contention-based PUSCH resource block in which the RRC request message has been transmitted.
An apparatus comprising a memory and at least one processing core configured to perform: - storing a convolutional artificial neural network, comprising at least one convolutional layer and an activation layer and convolutional artificial neural network information comprising at least one filter definition, wherein the convolutional artificial neural network is configured to receive an input which comprises an image and output information that indicates that one or more vertically aligned objects have been detected in the image; - generating, from the output of a preceding layer of the convolutional artificial neural network, a convolutional result of a succeeding layer of the artificial neural network in accordance with the at least one filter definition; and - generating, from the convolutional result, an activation result of the succeeding layer by using an activation function, the activation function taking three arguments derived from the convolutional result, wherein one of the arguments is a first convolutional result value, wherein - the at least one processing core is configured to derive the other two of the arguments from a neighbourhood of the first convolutional result value, and wherein the other two of the arguments comprise a value indicating a horizontal variation and a value indicating vertical variation. - storing a convolutional artificial neural network, comprising at least one convolutional layer and an activation layer and convolutional artificial neural network information comprising at least one filter definition, wherein the convolutional artificial neural network is configured to receive an input which comprises an image and output information that indicates that one or more vertically aligned objects have been detected in the image; - generating, from the output of a preceding layer of the convolutional artificial neural network, a convolutional result of a succeeding layer of the artificial neural network in accordance with the at least one filter definition; and - generating, from the convolutional result, an activation result of the succeeding layer by using an activation function, the activation function taking three arguments derived from the convolutional result, wherein one of the arguments is a first convolutional result value, wherein - the at least one processing core is configured to derive the other two of the arguments from a neighbourhood of the first convolutional result value, and wherein the other two of the arguments comprise a value indicating a horizontal variation and a value indicating vertical variation.
A water-in-oil emulsified skin cosmetic comprising the following ingredients (a) through (e) wherein said water-in-oil emulsified skin cosmetic is emulsified with (f) polyether-modified silicone and (g) ultraviolet absorbent is additionally blended in: (a) Water: 5-50 wt% (b) Ethanol: 1-20 wt% (c) Volatile oil component: 2-50 wt% (d) Carboxy decyl trisiloxane represented by the following formula: 0.1-5 wt% (e) Hydrophobized zinc oxide: 2-50 wt%. (a) Water: 5-50 wt% (b) Ethanol: 1-20 wt% (c) Volatile oil component: 2-50 wt% (d) Carboxy decyl trisiloxane represented by the following formula: 0.1-5 wt% (e) Hydrophobized zinc oxide: 2-50 wt%.
Pressure reducing valve, comprising a housing, said housing having an inlet providing an inlet pressure zone, an outlet providing an outlet pressure zone, a valve insert positioned within the housing, said valve insert connects the inlet pressure zone to the outlet pressure zone when the valve insert is opened, said valve insert separates the inlet pressure zone from the outlet pressure zone when the valve insert is closed, wherein the valve insert comprises a spring element and a membrane, wherein a force provided by the spring element acts on a first side of the membrane which tends to open the valve insert, characterized by a switch valve unit being coupled to the inlet pressure zone, the outlet pressure zone and to a pressure zone positioned on a second, opposite side of the membrane, wherein in a first switching state of the switch valve unit the pressure zone positioned on the second side of the membrane is connected to the outlet pressure zone and disconnected from the inlet pressure zone thereby providing a pressure reducing valve function of the pressure reducing valve, wherein in a second switching state of the switch valve unit the pressure zone positioned on the second side of the membrane is connected to the inlet pressure zone and disconnected from the outlet pressure zone thereby providing a shut off valve function of the pressure reducing valve. a housing, said housing having an inlet providing an inlet pressure zone, an outlet providing an outlet pressure zone, an inlet providing an inlet pressure zone, an outlet providing an outlet pressure zone, a valve insert positioned within the housing, said valve insert connects the inlet pressure zone to the outlet pressure zone when the valve insert is opened, said valve insert separates the inlet pressure zone from the outlet pressure zone when the valve insert is closed, wherein the valve insert comprises a spring element and a membrane, wherein a force provided by the spring element acts on a first side of the membrane which tends to open the valve insert, characterized by a switch valve unit being coupled to the inlet pressure zone, the outlet pressure zone and to a pressure zone positioned on a second, opposite side of the membrane, wherein in a first switching state of the switch valve unit the pressure zone positioned on the second side of the membrane is connected to the outlet pressure zone and disconnected from the inlet pressure zone thereby providing a pressure reducing valve function of the pressure reducing valve, wherein in a second switching state of the switch valve unit the pressure zone positioned on the second side of the membrane is connected to the inlet pressure zone and disconnected from the outlet pressure zone thereby providing a shut off valve function of the pressure reducing valve.
An ECG recording apparatus comprising a handheld device having first, second, third and fourth electrodes (21 - 24) on an outer surface of said handheld device; and a controller that measures signals from said electrodes, wherein the controller measures signals between the first electrode and each of the second, third and fourth electrodes to generate from the measured signals the ECG recording, and the controller provides placement information regarding locations on a user's body that are to be brought into contact with said first, second, third, and fourth electrodes while said controller generates the ECG recording, characterised in that: the apparatus is arranged such that the ECG recording is selected from a plurality of ECG recordings selected from the group consisting of standard lead traces and precordial traces, and the electrodes are positioned on the outer surface of said handheld device such that when said first and second electrodes contact a first hand of a patient, with said first and second electrodes contacting different locations on said first hand, and said third electrode is in contact with a location on said patient's other hand, said fourth electrode contacts a point on said patient's body chosen from the group consisting of said patient's lower abdomen, one of said patient's legs, and a precordial measurement point on said patient, said point depending on said ECG recording. the apparatus is arranged such that the ECG recording is selected from a plurality of ECG recordings selected from the group consisting of standard lead traces and precordial traces, and the electrodes are positioned on the outer surface of said handheld device such that when said first and second electrodes contact a first hand of a patient, with said first and second electrodes contacting different locations on said first hand, and said third electrode is in contact with a location on said patient's other hand, said fourth electrode contacts a point on said patient's body chosen from the group consisting of said patient's lower abdomen, one of said patient's legs, and a precordial measurement point on said patient, said point depending on said ECG recording.
Waste energy recovery unit for producing thermal energy, including a furnace for burning waste, and a gasification of waste with high LHV, characterized in that: - the furnace is a furnace for burning waste with relatively low LHV, less than 8 MJ/kg, - it comprises a gasifier in which is gasified waste with high LHV, greater than 12 MJ/kg, consisting of biomass and/or waste wood, in particular wood B, to produce syngas, - at least one connecting pipe is provided between the exit of the syngas produced by the gasifier, and the furnace combustion chamber, for the injection of syngas into said combustion chamber, and in that a solenoid valve is installed on the connecting pipe and is controlled by a regulation for the setting of the rate of injected syngas in the furnace and to operate the furnace at its maximum power. - the furnace is a furnace for burning waste with relatively low LHV, less than 8 MJ/kg, - it comprises a gasifier in which is gasified waste with high LHV, greater than 12 MJ/kg, consisting of biomass and/or waste wood, in particular wood B, to produce syngas, - at least one connecting pipe is provided between the exit of the syngas produced by the gasifier, and the furnace combustion chamber, for the injection of syngas into said combustion chamber,
A vacuum cleaner that has: a tank that has an open upper end; a removable lid that fits on the tank and closes the open upper end of the tank; a latching surface that is on part that is made separately from the lid, is held on the lid by a) a hooked end that fits over an edge on the lid and by b) a stationary retaining surface that engages a retaining edge on the lid, a latch that, when the lid is on the tank, pivots about a pivot axis between a latched position in which a latching part of the latch inhibits the lid from being lifted from the tank, and an unlatched position in which the latching part is moved to a different position and does not inhibit the lid being lifted from the tank; an engagement surface that is on the latch, pivots about the pivot axis, and fits over the latching surface when the latch is in the latched position; and a tab that is positioned where it can be engaged by a user to push the latch from the latched position to the unlatched position. a tank that has an open upper end; a removable lid that fits on the tank and closes the open upper end of the tank; a latching surface that is on part that is made separately from the lid, is held on the lid by a) a hooked end that fits over an edge on the lid and by b) a stationary retaining surface that engages a retaining edge on the lid, a latch that, when the lid is on the tank, pivots about a pivot axis between a latched position in which a latching part of the latch inhibits the lid from being lifted from the tank, and an unlatched position in which the latching part is moved to a different position and does not inhibit the lid being lifted from the tank; an engagement surface that is on the latch, pivots about the pivot axis, and fits over the latching surface when the latch is in the latched position; and a tab that is positioned where it can be engaged by a user to push the latch from the latched position to the unlatched position.
A method performed in a processing unit for finding settings to be used in relation to a sensor unit connected to the processing unit, comprising: receiving (S502, S602), from the sensor unit, a first identifier (401, 411) identifying a type of the sensor unit, one or more second identifiers (402, 421) each identifying a group of at least one related type of sensor unit, and compatibility data reflecting the compatibility of settings associated with each of the one or more second identifiers (402, 421) in relation to settings associated with the first identifier (401, 411); checking (S504, S604) if there are settings associated with the first identifier (401, 411) stored in the processing unit; if settings associated with the first identifier (401, 411) are stored in the processing unit, using (S510, S610) the settings associated with the first identifier (401, 411) in relation to the sensor unit; if no settings associated with the first identifier (401, 411) are stored in the processing unit, checking (S506, S606) if there are settings associated with each of the one or more second identifiers (402, 421) stored in the processing unit; and if settings associated with at least one of the one or more second identifiers (402, 421) are stored in the processing unit, using (S510, S610) the stored settings that according to the received compatibility data has the highest compatibility in relation to the sensor unit. receiving (S502, S602), from the sensor unit, a first identifier (401, 411) identifying a type of the sensor unit, one or more second identifiers (402, 421) each identifying a group of at least one related type of sensor unit, and compatibility data reflecting the compatibility of settings associated with each of the one or more second identifiers (402, 421) in relation to settings associated with the first identifier (401, 411); checking (S504, S604) if there are settings associated with the first identifier (401, 411) stored in the processing unit; if settings associated with the first identifier (401, 411) are stored in the processing unit, using (S510, S610) the settings associated with the first identifier (401, 411) in relation to the sensor unit; if no settings associated with the first identifier (401, 411) are stored in the processing unit, checking (S506, S606) if there are settings associated with each of the one or more second identifiers (402, 421) stored in the processing unit; and if settings associated with at least one of the one or more second identifiers (402, 421) are stored in the processing unit, using (S510, S610) the stored settings that according to the received compatibility data has the highest compatibility in relation to the sensor unit.
A lighting apparatus comprising: a first body comprising a first inner circumferential surface and a first outer circumferential surface; a cover disposed on and fastened to the first body and comprising an open bottom surface; an optical member; and a light source member comprising a circuit board disposed between the cover and the optical member and at least two light sources mounted on the circuit board to face each other; and a second body disposed between the first body and the cover and comprising a second inner circumferential surface and a second outer circumferential surface, wherein the optical member is disposed between the first body and the second body, a top surface of the optical member is in close contact with the second body, and a bottom surface of the optical member is in close contact with the first body, characterized in that, the first inner circumferential surface of the first body further protrudes into the optical member than the second inner circumferential surface of the second body. a first body comprising a first inner circumferential surface and a first outer circumferential surface; a cover disposed on and fastened to the first body and comprising an open bottom surface; an optical member; and a light source member comprising a circuit board disposed between the cover and the optical member and at least two light sources mounted on the circuit board to face each other; and a second body disposed between the first body and the cover and comprising a second inner circumferential surface and a second outer circumferential surface, wherein the optical member is disposed between the first body and the second body, a top surface of the optical member is in close contact with the second body, and a bottom surface of the optical member is in close contact with the first body, characterized in that, the first inner circumferential surface of the first body further protrudes into the optical member than the second inner circumferential surface of the second body.
A sandwich panel wall, comprising a foundation fixing means for jointing a sandwich panel to a foundation, which foundation fixing means further comprising an inner horizontal fixing portion; an outer horizontal fixing portion; a combined inner vertical water barrier and fixing portion, wherein the foundation fixing means comprises also a water passage, wherein the foundation fixing means comprises a U-profile, wherein the U-profile comprises the combined inner vertical water barrier and fixing portion, the inner horizontal fixing portion, the outer horizontal fixing portion, and an outer vertical fixing portion, and wherein the U-profile comprises one or more holes in the lower side of the outer vertical fixing portion forming the water passage, and wherein the foundation fixing means comprises also a separate horizontal water barrier portion and a horizontal thermal insulating portion, wherein the separate horizontal water barrier portion is above the horizontal thermal insulating portion, characterized in that the web of the U-profile comprises slots forming the horizontal thermal insulating portion. wherein the foundation fixing means comprises also a water passage, wherein the foundation fixing means comprises a U-profile, wherein the U-profile comprises the combined inner vertical water barrier and fixing portion, the inner horizontal fixing portion, the outer horizontal fixing portion, and an outer vertical fixing portion, and wherein the U-profile comprises one or more holes in the lower side of the outer vertical fixing portion forming the water passage, and wherein the foundation fixing means comprises also a separate horizontal water barrier portion and a horizontal thermal insulating portion, wherein the separate horizontal water barrier portion is above the horizontal thermal insulating portion, characterized in that the web of the U-profile comprises slots forming the horizontal thermal insulating portion.