mhurhangee/ep-ind-claims huggingface dataset:
A method of producing a tablet in which an uncoated tablet is coated by a coating agent, the method comprising: a coating process of coating uncoated tablets with a coating agent and forming outer surfaces of tablets by spray coating the coating agent onto tablets that are churned and tumbled inside a container, and drying the tablets inside the container by supplying drying air into the container and exhausting air from the container, wherein the coating process further comprises forming an undulating shape on the outer surfaces by controlling spray coating conditions, including air supply temperature, air supply rate, and spray speed, according to a weight of the coating agent with which the uncoated tablets are coated, such that a humidity of air exhausted during spray coating is within a range of from 14% RH to 30% RH. a coating process of coating uncoated tablets with a coating agent and forming outer surfaces of tablets by spray coating the coating agent onto tablets that are churned and tumbled inside a container, and drying the tablets inside the container by supplying drying air into the container and exhausting air from the container, wherein the coating process further comprises forming an undulating shape on the outer surfaces by controlling spray coating conditions, including air supply temperature, air supply rate, and spray speed, according to a weight of the coating agent with which the uncoated tablets are coated, such that a humidity of air exhausted during spray coating is within a range of from 14% RH to 30% RH.
A contact lens configured to generate a coma aberration and a spherical aberration and having a lens front surface of a convex shape that has an aspherical shape that generates the spherical aberration and has an optical central axis that is offset in position by a predetermined offset amount with respect to an optical central axis of the lens back surface to generate the coma aberration; and a lens back surface of a concave shape which is to be disposed on an eye side, a combined amount of the coma aberration and the spherical aberration calculated with a Zernike polynomial in a circular region having a diameter of 6 mm being 0.3 μm or more and not more than 2.0 μm wherein the combined amount of the coma aberration and the spherical aberration is represented by (A 2 +B 2) 1/2 where A represents the coma aberration amount, and B represents the spherical aberration amount. a lens back surface of a concave shape which is to be disposed on an eye side, a combined amount of the coma aberration and the spherical aberration calculated with a Zernike polynomial in a circular region having a diameter of 6 mm being 0.3 μm or more and not more than 2.0 μm wherein the combined amount of the coma aberration and the spherical aberration is represented by (A 2 +B 2) 1/2 where A represents the coma aberration amount, and B represents the spherical aberration amount.
A method performed by a terminal in a mobile communication system supporting a dual connectivity, the method comprising: receiving configuration information for a first medium access control, MAC, entity corresponding to a first cell group of a first base station and a second MAC entity corresponding to a second cell group of a second base station; identifying (1154, 1157) whether power backoff value for one of activated cells of the first MAC entity and the second MAC entity is changed more than a predetermined value; and transmitting (1155, 1158), to the first base station and the second base station, both of a first power headroom report, PHR, corresponding to the first MAC entity and a second PHR corresponding to the second MAC entity in case that the power backoff value for the one of activated cells of the first MAC entity and the second MAC entity is changed more than the predetermined value. receiving configuration information for a first medium access control, MAC, entity corresponding to a first cell group of a first base station and a second MAC entity corresponding to a second cell group of a second base station; identifying (1154, 1157) whether power backoff value for one of activated cells of the first MAC entity and the second MAC entity is changed more than a predetermined value; and transmitting (1155, 1158), to the first base station and the second base station, both of a first power headroom report, PHR, corresponding to the first MAC entity and a second PHR corresponding to the second MAC entity in case that the power backoff value for the one of activated cells of the first MAC entity and the second MAC entity is changed more than the predetermined value.
An article of footwear comprising: an upper; a midsole attached to the upper and including a first surface opposing the upper and a second surface formed on an opposite side of the midsole than the first surface; a first sole plate attached to the midsole and including a first rigidity higher than a rigidity of the midsole and a first edge having a first contour defined by a forefoot segment extending along a medial axis in a first substantially longitudinal direction, a transition segment, and a midfoot segment extending along a lateral axis in a second substantially longitudinal direction and offset from the medial axis; and a second sole plate attached to the midsole and including a second rigidity higher than a rigidity of the midsole, the second sole plate having a second edge including a second contour substantially corresponding to the first contour and extending along a length of the second sole plate, the second edge opposing and spaced apart from the first edge by a channel extending along a length of the first sole plate and the second sole plate, wherein the channel has a constant width along the entire length of the channel, characterized in that the midsole includes a groove formed into the midsole in an area between the first sole plate and the second sole plate, and wherein: the groove is formed along the channel; or the groove includes the same shape as and is positioned within the channel. an upper; a midsole attached to the upper and including a first surface opposing the upper and a second surface formed on an opposite side of the midsole than the first surface; a first sole plate attached to the midsole and including a first rigidity higher than a rigidity of the midsole and a first edge having a first contour defined by a forefoot segment extending along a medial axis in a first substantially longitudinal direction, a transition segment, and a midfoot segment extending along a lateral axis in a second substantially longitudinal direction and offset from the medial axis; and a second sole plate attached to the midsole and including a second rigidity higher than a rigidity of the midsole, the second sole plate having a second edge including a second contour substantially corresponding to the first contour and extending along a length of the second sole plate, the second edge opposing and spaced apart from the first edge by a channel extending along a length of the first sole plate and the second sole plate, wherein the channel has a constant width along the entire length of the channel, characterized in that the midsole includes a groove formed into the midsole in an area between the first sole plate and the second sole plate, and wherein: the groove is formed along the channel; or the groove includes the same shape as and is positioned within the channel.
Operating method in a vehicle, in which - at least one first window is displayed in full on a display area, wherein the first window displayed in full comprises a first display content, - at least one second window is displayed in a truncated manner, wherein the second window comprises a second display content which is associated with the first display content and which comprises second graphical objects or second text fields, and - a first operating action is detected by means of which the second window is displayed in full and the first window is simultaneously displayed in a truncated manner, characterized in that - the first display content comprises first graphical objects and first text fields, wherein - the first graphical objects comprise first buttons (12.1 - 12.5) for selecting lists and the first text fields comprise information about the lists, wherein one of the first buttons (12.2) is preselected, - the second graphical objects comprise second buttons (15.1 - 15.4) for selecting list entries which are associated with the preselected button (12.2) and, - if the first operating action has been detected, only the first buttons (12.1 - 12.5) continue to be displayed in the first window, and the second buttons (15.1 - 15.4) and the second text fields with information about the list entries are displayed in the second window, wherein - the first display content in the truncated display of the first window is reduced in such a way that only the first graphical objects continue to be displayed. - at least one first window is displayed in full on a display area, wherein the first window displayed in full comprises a first display content, - at least one second window is displayed in a truncated manner, wherein the second window comprises a second display content which is associated with the first display content and which comprises second graphical objects or second text fields, and - a first operating action is detected by means of which the second window is displayed in full and the first window is simultaneously displayed in a truncated manner, - the first display content comprises first graphical objects and first text fields, wherein - the first graphical objects comprise first buttons (12.1 - 12.5) for selecting lists and the first text fields comprise information about the lists, wherein one of the first buttons (12.2) is preselected, - the second graphical objects comprise second buttons (15.1 - 15.4) for selecting list entries which are associated with the preselected button (12.2) and, - if the first operating action has been detected, only the first buttons (12.1 - 12.5) continue to be displayed in the first window, and the second buttons (15.1 - 15.4) and the second text fields with information about the list entries are displayed in the second window, wherein - the first display content in the truncated display of the first window is reduced in such a way that only the first graphical objects continue to be displayed.
A method for learning Out-of-Vocabulary words in an Automatic Speech Recognition system, the method comprising: using an Acoustic Word Embedding Recurrent Neural Network (AWE RNN) to receive a character sequence for a new OOV word for the ASR system, the RNN providing an Acoustic Word Embedding vector as an output thereof; providing the AWE vector output from the AWE RNN as an input into an Acoustic Word Embedding-to-Acoustic-to-Word Neural Network (AWE→A2W NN) trained to provide an OOV word weight value from the AWE vector; and inserting the OOV word weight into a listing of Acoustic-to-Word (A2W) word embeddings used by the ASR system to output recognized words from an input of speech acoustic features, wherein the OOV word weight is inserted into the A2W word embeddings list relative to existing weights in the A2W word embeddings list. using an Acoustic Word Embedding Recurrent Neural Network (AWE RNN) to receive a character sequence for a new OOV word for the ASR system, the RNN providing an Acoustic Word Embedding vector as an output thereof; providing the AWE vector output from the AWE RNN as an input into an Acoustic Word Embedding-to-Acoustic-to-Word Neural Network (AWE→A2W NN) trained to provide an OOV word weight value from the AWE vector; and inserting the OOV word weight into a listing of Acoustic-to-Word (A2W) word embeddings used by the ASR system to output recognized words from an input of speech acoustic features, wherein the OOV word weight is inserted into the A2W word embeddings list relative to existing weights in the A2W word embeddings list.
A bis (acyl)phosphine oxide of formula: wherein R is C 1 -C 6 alkyl, and wherein R is not substituted, which bis (acyl)phosphine oxide is liquid at 20 °C.
Method for fabricating a strained semiconductor-on-insulator substrate, comprising: (a) the provision of a donor substrate comprising a monocrystalline semiconductor layer; (b) the provision of a receiving substrate comprising a surface layer of a strained monocrystalline semiconductor material and a carrier substrate; (c) the bonding of the donor substrate to the receiving substrate, a dielectric layer (11, 22) being at the interface between the surface layer and the monocrystalline semiconductor layer; (d) the transfer of the monocrystalline semiconductor layer from the donor substrate to the receiving substrate; (e) the cutting of a portion from a stack formed from the transferred monocrystalline semiconductor layer, from the dielectric layer (11, 22) and from the surface layer, by forming trench isolations extending into said stack beyond the surface layer up to within the thickness of the carrier substrate, said cutting operation resulting in the relaxation of the strain in the surface layer, and in the application of at least a part of said strain to the transferred monocrystalline semiconductor layer; said method being characterized in that step (b) additionally comprises the formation, on the surface layer of the receiving substrate, of a dielectric bonding layer or of a bonding layer consisting of the same relaxed, or at least partially relaxed, monocrystalline semiconductor material as the monocrystalline semiconductor layer of the donor substrate, and in that in step (c) said bonding layer (22, 23) is at the bonding interface between the donor substrate and the receiving substrate. (a) the provision of a donor substrate comprising a monocrystalline semiconductor layer; (b) the provision of a receiving substrate comprising a surface layer of a strained monocrystalline semiconductor material and a carrier substrate; (c) the bonding of the donor substrate to the receiving substrate, a dielectric layer (11, 22) being at the interface between the surface layer and the monocrystalline semiconductor layer; (d) the transfer of the monocrystalline semiconductor layer from the donor substrate to the receiving substrate; (e) the cutting of a portion from a stack formed from the transferred monocrystalline semiconductor layer, from the dielectric layer (11, 22) and from the surface layer, by forming trench isolations extending into said stack beyond the surface layer up to within the thickness of the carrier substrate, said cutting operation resulting in the relaxation of the strain in the surface layer, and in the application of at least a part of said strain to the transferred monocrystalline semiconductor layer;
An impact absorbing structure, comprising a unitary material formed as a stretch-dominated hollow cell structure, wherein at least a plurality of cells are configured to tessellate with a cell axis normal to the surface or out-of-plane and the hollow cell structure has a relative density substantially between 0.05 and 0.15, wherein the relative density is defined as ρ/ρ s, where ρ is the density of the hollow cell structure and ρ s is the density of the unitary material.
Conductive element for forming busbar-systems, comprising a casing composed of at least one profiled element, a plurality of conductor rails housed in the casing and having splayed terminals protruding from opposite ends of said casing and at least one grounding element, characterized in that it further comprises: - at least one first electrical and mechanical connection extending over the whole length of said casing, and - fastening means for the removable coupling of said at least one grounding element with one end of said casing cooperating with said at least one first electrical and mechanical connection. - at least one first electrical and mechanical connection extending over the whole length of said casing, and - fastening means for the removable coupling of said at least one grounding element with one end of said casing cooperating with said at least one first electrical and mechanical connection.
Process for casting metal comprising the process steps of - providing metal melt in a casting furnace, - filling the metal melt from the casting furnace into a casting mold, - actively interrupting a fluid connection between the casting furnace and the casting mold by a rotation of a piston around a longitudinal housing axis in an adapter housing, - venting the casting furnace, - actively aerating the fluid connection. - providing metal melt in a casting furnace, - filling the metal melt from the casting furnace into a casting mold, - actively interrupting a fluid connection between the casting furnace and the casting mold by a rotation of a piston around a longitudinal housing axis in an adapter housing, - venting the casting furnace, - actively aerating the fluid connection.
Method for operating a wind turbine having a rotor and a generator which is connected to the rotor and has the purpose of outputting electrical power to a power grid, wherein the rotor has rotor blades whose blade angles (α) can be moved for the closed-loop control of the rotational speed (n) of the rotor during operation, and wherein at a rotational speed (n) above a rotational speed limit (n lim) which bounds an operating range (34, 34', 34") of the wind turbine the rotor is forcibly braked by increasing the blade angles (α) with a predefined positive blade angle movement rate (ω r), in particular with a positive blade angle movement rate (ω r, max) which is as large as possible in absolute terms, wherein the rotational speed limit (n lim) is changed as a function of a blade angle movement rate (ω) which is set by the closed-loop control system, characterized in that the change in the rotational speed limit (n lim) is a temporary change within a time period (Δt) defined by the controller, depending on the blade angle movement rate (ω) set by the closed-loop control system.
A helical energy storage unit, characterised in that it comprises: - foundations where a tower is erected, wherein such tower is hollow and has the shape of a straight cylinder; - a multi-track rail (2.2) which extends following a helical path, connected to the inner wall (2.1) of the tower; - a platform for the storage of potential energy which is adapted to move along such helical rail to store potential energy as it rises along such rail, and to generate kinetic energy when it falls along the rail; - at least one generator/electric engine (3.2) solidly mounted on the storage platform and engaged to the multi-track rail (2.2) to generate electric power from the kinetic energy released when such storage platform falls along the rail, and to be used as an engine to allow the rising of the storage platform along such rail (2.2); - a storage device which is functionally coupled to the generator/electric engine (3.2) and is adapted to collect the power generated when the platform falls along the rail (2.2) and to supply power to allow the rising of such storage platform along the rail; - a transformer station connected to the storage device to collect the power generated when the generating set/electric engine (3.2) operates as a generating set, during the fall of the storage platform along the rail, or to supply power to such generator/electric engine (3.2) when such generator /electric engine is operating as an engine to rise the storage platform along the rail; and Wherein the storage platform comprises ancillary hoisting elements (3.7) for the autonomous assembly of the tower. - foundations where a tower is erected, wherein such tower is hollow and has the shape of a straight cylinder; - a multi-track rail (2.2) which extends following a helical path, connected to the inner wall (2.1) of the tower; - a platform for the storage of potential energy which is adapted to move along such helical rail to store potential energy as it rises along such rail, and to generate kinetic energy when it falls along the rail; - at least one generator/electric engine (3.2) solidly mounted on the storage platform and engaged to the multi-track rail (2.2) to generate electric power from the kinetic energy released when such storage platform falls along the rail, and to be used as an engine to allow the rising of the storage platform along such rail (2.2); - a storage device which is functionally coupled to the generator/electric engine (3.2) and is adapted to collect the power generated when the platform falls along the rail (2.2) and to supply power to allow the rising of such storage platform along the rail; - a transformer station connected to the storage device to collect the power generated when the generating set/electric engine (3.2) operates as a generating set, during the fall of the storage platform along the rail, or to supply power to such generator/electric engine (3.2) when such generator /electric engine is operating as an engine to rise the storage platform along the rail; and
A cartridge for digital real-time Polymerase chain reaction comprising: a microfluidic chamber comprising a membrane switch protruding upward and an inlet formed for injection of a liquid sample, the microfluidic chamber being capable of injection molding; a well array comprising a plurality of microwells through which upper and lower portions are perforated and being attached to a lower surface of the microfluidic chamber; a CMOS photo sensor array disposed below the well array to capture a response image of a sample filled in microwells of the well array; and a PCB having a vent hole formed for vacuum processing of a micro flow path formed in the microfluidic chamber, a space formed between the well array and the microfluidic chamber, and a microwell formed in the well array as the liquid sample is injected through the inlet, wherein a recessed space is formed in a lower central region of the microfluidic chamber to accommodate the CMOS photo sensor array and the well array mounted on the PCB, a lower edge region of the microfluidic chamber is in contact with an edge region of the PCB. a microfluidic chamber comprising a membrane switch protruding upward and an inlet formed for injection of a liquid sample, the microfluidic chamber being capable of injection molding; a well array comprising a plurality of microwells through which upper and lower portions are perforated and being attached to a lower surface of the microfluidic chamber; a CMOS photo sensor array disposed below the well array to capture a response image of a sample filled in microwells of the well array; and a PCB having a vent hole formed for vacuum processing of a micro flow path formed in the microfluidic chamber, a space formed between the well array and the microfluidic chamber, and a microwell formed in the well array as the liquid sample is injected through the inlet, wherein a recessed space is formed in a lower central region of the microfluidic chamber to accommodate the CMOS photo sensor array and the well array mounted on the PCB, a lower edge region of the microfluidic chamber is in contact with an edge region of the PCB.