mhurhangee/ep-ind-claims huggingface dataset:
A silicon carbide porous material which includes silicon carbide particles, metal silicon and an oxide phase and in which the silicon carbide particles are bonded to one another via at least one of the metal silicon and the oxide phase, wherein: the oxide phase comprises a parent phase, and a dispersion phase dispersed in the parent phase and having a higher thermal expansion coefficient than the parent phase; a content ratio of the silicon carbide particles has a lower limit value of 50 mass% and an upper limit value of 80 mass%; a content ratio of the metal silicon has a lower limit value of 15 mass% and an upper limit value of 45 mass%; a content ratio of the oxide has a lower limit value of 1 mass% and an upper limit value of 25 mass%; and a content ratio of the dispersion phase in the oxide phase has a lower limit value of 1 mass% and an upper limit value of 40 mass%. the oxide phase comprises a parent phase, and a dispersion phase dispersed in the parent phase and having a higher thermal expansion coefficient than the parent phase; a content ratio of the silicon carbide particles has a lower limit value of 50 mass% and an upper limit value of 80 mass%; a content ratio of the metal silicon has a lower limit value of 15 mass% and an upper limit value of 45 mass%; a content ratio of the oxide has a lower limit value of 1 mass% and an upper limit value of 25 mass%; and a content ratio of the dispersion phase in the oxide phase has a lower limit value of 1 mass% and an upper limit value of 40 mass%.
A method for controlling a dormancy timer, characterized by comprising: obtaining (101, 201) a value of a resource occupation rate of a communication system; and setting (102, 202) threshold time of the dormancy timer for a mobile terminal according to the value of the resource occupation rate of the communication system, wherein if the resource occupation rate increases to a preset threshold, the threshold time is decreased; and if the resource occupation rate decreases to another preset threshold, the threshold time is increased. obtaining (101, 201) a value of a resource occupation rate of a communication system; and setting (102, 202) threshold time of the dormancy timer for a mobile terminal according to the value of the resource occupation rate of the communication system, wherein if the resource occupation rate increases to a preset threshold, the threshold time is decreased; and if the resource occupation rate decreases to another preset threshold, the threshold time is increased.
An air conditioner, comprising: a heat exchanger; a first blower fan; a second blower fan; a structural body which forms a first air outlet that extends in a horizontal direction when being installed for allowing said first blower fan to blow out a cool or warm airflow (121, 131) which is generated by the heat exchanger, and includes a wall body which is fixed to the structural body to at least one side of the first air outlet; an auxiliary housing which is attached to the wall body to be freely movable on at least one side of the first air outlet, and forms a second air outlet for allowing said second blower fan to blow out taken-in indoor air; and a control circuit, comprising: a first blower fan control section configured for controlling the first blower fan to blow out the cool or warm airflow (12, 13) that is generated by the heat exchanger at a first wind speed, from the first air outlet; and a second blower fan control section configured for controlling the second blower fan to blow out an airflow of the indoor air from the second air outlet, characterized in that the second blower fan control section is configured for controlling the second blower fan to blow out the airflow of the indoor air at a second air speed which is higher than the first air speed. a heat exchanger; a first blower fan; a second blower fan; a structural body which forms a first air outlet that extends in a horizontal direction when being installed for allowing said first blower fan to blow out a cool or warm airflow (121, 131) which is generated by the heat exchanger, and includes a wall body which is fixed to the structural body to at least one side of the first air outlet; an auxiliary housing which is attached to the wall body to be freely movable on at least one side of the first air outlet, and forms a second air outlet for allowing said second blower fan to blow out taken-in indoor air; and a control circuit, comprising: a first blower fan control section configured for controlling the first blower fan to blow out the cool or warm airflow (12, 13) that is generated by the heat exchanger at a first wind speed, from the first air outlet; and a second blower fan control section configured for controlling the second blower fan to blow out an airflow of the indoor air from the second air outlet, characterized in that the second blower fan control section is configured for controlling the second blower fan to blow out the airflow of the indoor air at a second air speed which is higher than the first air speed. a first blower fan control section configured for controlling the first blower fan to blow out the cool or warm airflow (12, 13) that is generated by the heat exchanger at a first wind speed, from the first air outlet; and a second blower fan control section configured for controlling the second blower fan to blow out an airflow of the indoor air from the second air outlet, characterized in that the second blower fan control section is configured for controlling the second blower fan to blow out the airflow of the indoor air at a second air speed which is higher than the first air speed.
A method implemented at a terminal device, the method comprising: obtaining information by detecting a synchronization signal/physical broadcast channel, SS/PBCH, block, wherein the obtained information comprises at least one of: synchronization signal block, SSB, subcarrier spacing, SCS; SCS of a physical downlink control channel, PDCCH, for remaining minimum system information, RMSI; first four bits of RMSI configuration in the SS/PBCH block; second four bits of RMSI Configuration in the SS/PBCH block; reserved bit(s) of RMSI configuration in the SS/PBCH block; and SSB/RMSI multiplexing type; determining one or more control resource set, CORESET, control channel element, CCE, to resource element group, REG, mapping related parameters, based on the information obtained during the detection of the SS/PBCH block, wherein a correspondence between the one or more CORESET CCE to REG mapping related parameters and the obtained information is predefined between the terminal device and a base station, BS, determining (102, 206) a set of PDCCH candidates based on the one or more CORESET CCE to REG mapping related parameters. obtaining information by detecting a synchronization signal/physical broadcast channel, SS/PBCH, block, wherein the obtained information comprises at least one of: synchronization signal block, SSB, subcarrier spacing, SCS; SCS of a physical downlink control channel, PDCCH, for remaining minimum system information, RMSI; first four bits of RMSI configuration in the SS/PBCH block; second four bits of RMSI Configuration in the SS/PBCH block; reserved bit(s) of RMSI configuration in the SS/PBCH block; and SSB/RMSI multiplexing type; determining one or more control resource set, CORESET, control channel element, CCE, to resource element group, REG, mapping related parameters, based on the information obtained during the detection of the SS/PBCH block, wherein a correspondence between the one or more CORESET CCE to REG mapping related parameters and the obtained information is predefined between the terminal device and a base station, BS, determining (102, 206) a set of PDCCH candidates based on the one or more CORESET CCE to REG mapping related parameters.
Bale wrapping device for enveloping a bale with an enveloping material, having a receiving apparatus for receiving the bale during the enveloping operation, and having at least one wrapping arm, wherein the receiving apparatus is configured to be adjustable in such a way that the bale centre point of the bale to be enveloped takes up an at least substantially identical position (P M) with respect to the at least one wrapping arm for different bale diameters (D, D', D") and wherein the receiving apparatus has (a) horizontally spaced-apart support means that is/are formed as one or more support roller(s), for circumferentially supporting the bale, characterized in that the support means are provided on support arms that are pivotable with respect to a frame of the bale wrapping device, wherein the support means as such, or the support arms with the support means provided thereon, at least approximately determine the limb ends or the limbs of a V, the vertex of which is formed by the pivot point S or the pivot bearing, wherein the support arms are attached to the frame at the pivot point S by means of a pivot bearing, and are provided so as to be pivotable about an axle that is arranged horizontally and transversely with respect to the direction of travel.
Vegetable food product, free from saccharose, lactose, egg and soybean, comprising a base ingredient, wherein said base ingredient comprises water and micronized particles of gluten-free wholegrain cereal seeds, and is in the form of a fluid and/or anhydrous powder, wherein said micronized particles have a size of less than 30 microns, wherein said vegetable food product further comprises thickeners, of natural and/or artificial origin which determine an increase in the density and consistency of the base ingredient, and flavourings, which flavourings give said food product a food substitute character for cheese wherein: - said gluten-free cereals are selected from the group consisting of rice, corn, millet, buckwheat, sorghum, amaranth, quinoa; - said thickeners comprise carrageenan and/or agar-agar and/or starches and/or carob seeds and/or guar and/or xanthan; - said flavourings comprise diacetyl and butyric acid, to give a butter flavour, and/or valerenic acid and/or isobutyric acid, to give a cheese flavour and/or heptanonemethylthiobutyrate, to give a gorgonzola flavour, and wherein said food product comprises lipids, such as coconut oil and/or olive oil, and/or seed oil and/or vegetable oil and/or vegetable margarines, and said food product is pasteurised or treated at a pressure within a range between 3000 and 15000 bar. - said gluten-free cereals are selected from the group consisting of rice, corn, millet, buckwheat, sorghum, amaranth, quinoa; - said thickeners comprise carrageenan and/or agar-agar and/or starches and/or carob seeds and/or guar and/or xanthan; - said flavourings comprise diacetyl and butyric acid, to give a butter flavour, and/or valerenic acid and/or isobutyric acid, to give a cheese flavour and/or heptanonemethylthiobutyrate, to give a gorgonzola flavour, and
A method, said method comprising: setting an adjustment timer; receiving (310, 410), by a transmitter, a report from an associated client, wherein said report includes received signal strength, client transmit power level, and one of link margin and receiver sensitivity; setting (325, 425) and using a downlink transmit power level for data transmissions to said associated client responsive to said report; determining a downlink data loss rate using a number of retransmission requests in a time interval; if said downlink data loss rate is greater than a threshold, adjusting said downlink transmit power level responsive to said downlink data loss rate for said associated client, and using a data loss measurement window to maintain status of most recent data transmissions for said associated client. setting an adjustment timer; receiving (310, 410), by a transmitter, a report from an associated client, wherein said report includes received signal strength, client transmit power level, and one of link margin and receiver sensitivity; setting (325, 425) and using a downlink transmit power level for data transmissions to said associated client responsive to said report; determining a downlink data loss rate using a number of retransmission requests in a time interval; if said downlink data loss rate is greater than a threshold, adjusting said downlink transmit power level responsive to said downlink data loss rate for said associated client, and using a data loss measurement window to maintain status of most recent data transmissions for said associated client.
A method of forming an orifice through a rail member of a heat shield panel having a cold side surface, comprising: positioning the rail member at a first position relative to a hole boring tool, where the hole boring tool is at a first predetermined angle relative to the cold side surface; forming a first cut into the rail member using the hole boring tool, the first cut extending partially through the rail member; positioning the rail member at a second position relative to the hole boring tool, where the hole boring tool is at a second predetermined angle relative to the cold side surface; forming a second cut into the rail member using the hole boring tool, the second cut extending completely through the rail member and intersecting a portion of the first cut to form the orifice, extending through the rail member, from an inner wall of the rail member to an outer wall of the rail member, the orifice having a cross sectional area that increases from the inner wall to the outer wall. positioning the rail member at a first position relative to a hole boring tool, where the hole boring tool is at a first predetermined angle relative to the cold side surface; forming a first cut into the rail member using the hole boring tool, the first cut extending partially through the rail member; positioning the rail member at a second position relative to the hole boring tool, where the hole boring tool is at a second predetermined angle relative to the cold side surface; forming a second cut into the rail member using the hole boring tool, the second cut extending completely through the rail member and intersecting a portion of the first cut to form the orifice, extending through the rail member, from an inner wall of the rail member to an outer wall of the rail member, the orifice having a cross sectional area that increases from the inner wall to the outer wall.
A method for the production of particles, wherein the particles have a SAR (specific absorption rate) value of 10 - 40 W per g Fe at a magnetic field strength of 4 kA/m and a frequency of an alternating magnetic field of 100 kHz, comprising the following steps: A1) providing a composition of at least one iron-containing compound A in at least one organic solvent LM1, B1) heating of the composition to a temperature in the range of 50 °C to a temperature of 50 °C below the actual reaction temperature according to step C1 of the iron-containing compound A for at least 10 minutes, C1) heating of the composition to a temperature of between 200 °C and 400 °C, wherein the duration of the heating phase is at least 30 minutes, D1) purification of the obtained particles by means of Soxhlet extraction, wherein the duration of the extraction is between 1 and 8 hours, E1) suspending the purified nanoparticles in water or an aqueous solution of an acid, F1) addition of a surface-active compound to the aqueous suspension obtained according to step E1, H1) purification of the obtained aqueous dispersion of the particles, I1) production of a dispersion of the particles according to step H1) in a solvent mixture of water and a solvent miscible with water, J1) addition of an alkoxysilane to the dispersion of the particles in the solvent mixture according to step I1), K1) purification of the particles. A1) providing a composition of at least one iron-containing compound A in at least one organic solvent LM1, B1) heating of the composition to a temperature in the range of 50 °C to a temperature of 50 °C below the actual reaction temperature according to step C1 of the iron-containing compound A for at least 10 minutes, C1) heating of the composition to a temperature of between 200 °C and 400 °C, wherein the duration of the heating phase is at least 30 minutes, D1) purification of the obtained particles by means of Soxhlet extraction, wherein the duration of the extraction is between 1 and 8 hours, E1) suspending the purified nanoparticles in water or an aqueous solution of an acid, F1) addition of a surface-active compound to the aqueous suspension obtained according to step E1, H1) purification of the obtained aqueous dispersion of the particles, I1) production of a dispersion of the particles according to step H1) in a solvent mixture of water and a solvent miscible with water, J1) addition of an alkoxysilane to the dispersion of the particles in the solvent mixture according to step I1), K1) purification of the particles.
A compound represented by formula: wherein, X 1 and X 2 are the same or different and represent a nitrogen atom or formula CH; Y represents any of the structures in the following formula group (a): n represents 1 or 2; R 1 represents a hydrogen atom, a halogen atom or a C 1-6 alkyl group; R 2 represents a triazolyl group, a pyridyl group or a pyrimidinyl group; R 3 represents a hydrogen atom, a halogen atom or a C 1-6 alkyl group, wherein the C 1-6 alkyl group may optionally be substituted with 1 to 3 halogen atoms; and R 4 represents a hydrogen atom or a C 1-6 alkyl group; or a pharmaceutically acceptable salt thereof. X 1 and X 2 are the same or different and represent a nitrogen atom or formula CH; Y represents any of the structures in the following formula group (a): n represents 1 or 2; R 1 represents a hydrogen atom, a halogen atom or a C 1-6 alkyl group; R 2 represents a triazolyl group, a pyridyl group or a pyrimidinyl group; R 3 represents a hydrogen atom, a halogen atom or a C 1-6 alkyl group, wherein the C 1-6 alkyl group may optionally be substituted with 1 to 3 halogen atoms; and R 4 represents a hydrogen atom or a C 1-6 alkyl group;
A machine for separating sheets of cartons, comprising a frame on which a handling station of the cartons, a warehouse for at least one stack of cartons, and a gripping station of the cartons are mounted, in an operatively contiguous position, in which the gripping station comprises a pair of motorized counter-rotating rolls (41, 42), suitable to withdraw a carton from said at least one stack of cartons, wherein the machine comprises singularization means of a carton from said at least one stack of cartons, said singularization means being arranged at the warehouse, said singularization means comprise first sucker means in a position adjacent to said pair of motorized rolls (41, 42), and optionally second sucker means, characterized by said sucker means (18, 18') comprising a support bar on which a plurality of suction bells is secured for gripping a carton from below from said at least one stack of cartons, wherein the support bar is movable vertically.
A communication device comprising: transmission and reception circuitry configured to communicate with an external communication device via a data signal line and a clock signal line, the communication including transmitting and receiving data via the data signal line, the data including an expected parity and a payload, the expected parity including a first expected parity bit and a second expected parity bit; and control circuitry configured to perform a parity check to received data by calculating a first calculated parity bit and a second calculated parity bit and comparing the first expected parity bit to the first calculated parity bit and the second expected parity bit to the second calculated parity bit, wherein one of the first calculated parity bit or the second calculated parity bit are calculated based on the data using an XOR function on one of all odd payload bits or all even payload bits, and the other one of the first calculated parity bit or the second calculated parity bit are calculated using an XOR function of the other of all odd payload bits or all even payload bits adding 1, wherein, in a case where the control circuitry determines that an error has occurred, the control circuitry causes the transmission and reception circuitry to transmit a negative acknowledgement signal to the external communication device and the control circuitry causes the transmission and reception circuitry to interrupt the communication. transmission and reception circuitry configured to communicate with an external communication device via a data signal line and a clock signal line, the communication including transmitting and receiving data via the data signal line, the data including an expected parity and a payload, the expected parity including a first expected parity bit and a second expected parity bit; and control circuitry configured to perform a parity check to received data by calculating a first calculated parity bit and a second calculated parity bit and comparing the first expected parity bit to the first calculated parity bit and the second expected parity bit to the second calculated parity bit, wherein one of the first calculated parity bit or the second calculated parity bit are calculated based on the data using an XOR function on one of all odd payload bits or all even payload bits, and the other one of the first calculated parity bit or the second calculated parity bit are calculated using an XOR function of the other of all odd payload bits or all even payload bits adding 1, wherein, in a case where the control circuitry determines that an error has occurred, the control circuitry causes the transmission and reception circuitry to transmit a negative acknowledgement signal to the external communication device and the control circuitry causes the transmission and reception circuitry to interrupt the communication.