mhurhangee/patent-ind-claim-en huggingface dataset:
A floor brush for a cleaning appliance, comprising: a body having an air channel and a suction port communicating with the air channel , the air channel being formed in the body and the suction port being formed in a lower surface at a front end of the body , the air channel being configured so that when the body covers a surface to be cleaned, an airtight space is formed between the air channel and the surface to be cleaned, and a front air inlet communicating with the air channel being formed at the front end of the body ; and an airflow guiding portion arranged at the front end of the body and adjacent to the front air inlet , the airflow guiding portion having an airflow guiding surface so that external air enters the air channel through the airflow guiding surface and the front air inlet , the airflow guiding surface comprising a rear airflow guiding surface ; characterised in that the air channel comprises a first wall surface and a second wall surface , the first wall surface is connected to a rear end of the airflow guiding surface and obliquely extends upwards and backwards, and the second wall surface is opposite to the first wall surface ; wherein the smallest distance D1 between the second wall surface and the surface to be cleaned and the greatest distance D2 between the rear airflow guiding surface and the surface to be cleaned satisfy that D1 is less than or equal to D2. a body having an air channel and a suction port communicating with the air channel , the air channel being formed in the body and the suction port being formed in a lower surface at a front end of the body , the air channel being configured so that when the body covers a surface to be cleaned, an airtight space is formed between the air channel and the surface to be cleaned, and a front air inlet communicating with the air channel being formed at the front end of the body ; and an airflow guiding portion arranged at the front end of the body and adjacent to the front air inlet , the airflow guiding portion having an airflow guiding surface so that external air enters the air channel through the airflow guiding surface and the front air inlet , the airflow guiding surface comprising a rear airflow guiding surface ; characterised in that the air channel comprises a first wall surface and a second wall surface , the first wall surface is connected to a rear end of the airflow guiding surface and obliquely extends upwards and backwards, and the second wall surface is opposite to the first wall surface ; wherein the smallest distance D1 between the second wall surface and the surface to be cleaned and the greatest distance D2 between the rear airflow guiding surface and the surface to be cleaned satisfy that D1 is less than or equal to D2.
Apparatus comprising a first device and a second device , wherein the first device is a heat source and wherein the second device is a cooling device, wherein the second device takes up heat emitted by the first device , wherein a heat transfer element is arranged between the first device and the second device , wherein the heat transfer element is moulded on the first device or the second device such that the heat transfer element is fixedly connected to the first device or the second device , wherein the heat transfer element consists of elastomer material and is elastic, characterized in that the heat transfer element is made of injection-mouldable material and is integrally moulded by injection moulding directly onto the first device or the second device , with the result that the heat transfer element is in a materially bonded connection with the first device or the second device .
A method of wireless communication performed by a user equipment, UE in a multi-transmit receive point, TRP, transmission mode, comprising: receiving a configuration that indicates an association between a pre-emption indication field and at least one of: a set of transmission configuration indicator, TCI, states, a set of demodulation reference signal, DMRS, ports, or a set of layers; receiving downlink control information, DCI, that includes a pre-emption indication that is indicated as a set of bits in the pre-emption indication field, wherein the pre-emption indication indicates one or more pre-empted resources for the UE; determining whether the UE is scheduled to receive a communication in the one or more pre-empted resources indicated by the set of bits, via a component carrier associated with the pre-emption indication, and using at least one of: a TCI state included in the set of TCI states, a DMRS port included in the set of DMRS ports, or a layer included in the set of layers; and decoding the communication based at least in part on the determination. receiving a configuration that indicates an association between a pre-emption indication field and at least one of: a set of transmission configuration indicator, TCI, states, a set of demodulation reference signal, DMRS, ports, or a set of layers; a set of transmission configuration indicator, TCI, states, a set of demodulation reference signal, DMRS, ports, or a set of layers; receiving downlink control information, DCI, that includes a pre-emption indication that is indicated as a set of bits in the pre-emption indication field, wherein the pre-emption indication indicates one or more pre-empted resources for the UE; determining whether the UE is scheduled to receive a communication in the one or more pre-empted resources indicated by the set of bits, via a component carrier associated with the pre-emption indication, and using at least one of: a TCI state included in the set of TCI states, a DMRS port included in the set of DMRS ports, or a layer included in the set of layers; and a TCI state included in the set of TCI states, a DMRS port included in the set of DMRS ports, or a layer included in the set of layers; and decoding the communication based at least in part on the determination.
Interlayer film with a transparent and a non-transparent region, wherein the non-transparent region is provided by two outer layers comprising a first mixture of at least one plasticizer and at least one polyvinylacetal and one inner layer comprising a second mixture of at least one plasticizer and at least one polyvinylacetal and the transparent region is provided by one layer comprising a third mixture of at least one plasticizer and at least one polyvinylacetal characterized in that the first and the third mixture have a transmission for light having a wavelength of 380 to 780 nm of at least 85% and the second mixture has a transmission for light having a wavelength of 380 to 780 nm of less than 80%, and wherein at least the non-transparent region is provided with a surface roughness with a ratio of Rz/Rv of 1,6 to 2,5 as measured according to EN ISO 4287.
A method for lowering fuel consumption in a vehicle, the method comprising: detecting a need to shift based on a plurality of current vehicle operating conditions, the vehicle operating in a first transmission gear of a manual transmission; calculating a first predicted vehicle operating condition based on switching to a second transmission gear that is higher than the first transmission gear; calculating a second predicted vehicle operating condition based on switching to a third transmission gear that is higher than the second transmission gear; comparing the first predicted vehicle operating condition and the second predicted vehicle operating condition to a desired vehicle operating condition, wherein comparing the first predicted operating condition and the second predicted operating condition to the desired vehicle operating condition comprises determining whether a predicted engine speed for the vehicle when switched to the second transmission gear or the third transmission gear would produce power within a peak power band; presenting a prompt to a vehicle operator to switch to the second transmission gear in response to determining that the second transmission gear and not the third transmission gear meets the desired vehicle operating condition; and presenting a prompt to the vehicle operator to switch to the third transmission gear in response to determining that the third transmission gear meets the desired vehicle operating condition. detecting a need to shift based on a plurality of current vehicle operating conditions, the vehicle operating in a first transmission gear of a manual transmission; calculating a first predicted vehicle operating condition based on switching to a second transmission gear that is higher than the first transmission gear; calculating a second predicted vehicle operating condition based on switching to a third transmission gear that is higher than the second transmission gear; comparing the first predicted vehicle operating condition and the second predicted vehicle operating condition to a desired vehicle operating condition, wherein comparing the first predicted operating condition and the second predicted operating condition to the desired vehicle operating condition comprises determining whether a predicted engine speed for the vehicle when switched to the second transmission gear or the third transmission gear would produce power within a peak power band; presenting a prompt to a vehicle operator to switch to the second transmission gear in response to determining that the second transmission gear and not the third transmission gear meets the desired vehicle operating condition; and presenting a prompt to the vehicle operator to switch to the third transmission gear in response to determining that the third transmission gear meets the desired vehicle operating condition.
A compound paper yarn manufacturing device comprising: a pair of feeding rollers configured to sandwich and feed out a single paper tape at a constant speed; a pair of slip rollers including a driving roller that is configured to be rotated at a surface speed of more than 1.000 times as compared with a constant speed of the pair of feeding rollers, the pair of slip rollers being configured to sandwich the single paper tape and feed out the single paper tape while slipping the driving roller with respect to the single paper tape; and a covering machine provided with a single covering unit (26; 91) having a false-twisting mechanism (81; 83) configured to perform, with a first yarn when added in use, false-twisting on the single paper tape fed out by the pair of slip rollers, the single covering unit having a covering mechanism configured to cover, with a second yarn when added in use, the single paper tape and the first yarn when added in use to the single paper tape in a twisting region or an untwisting region of the false-twisting mechanism, wherein the first yarn is at least one piece of yarn selected from a group including a first long fiber, a first spun yarn, and a compound yarn in which a first long fiber and a first spun yarn are combined, and the second yarn is at least one piece of yarn selected from a group including a second long fiber, a second spun yarn, and a compound yarn in which a second long fiber and a second spun yarn are combined. a pair of feeding rollers configured to sandwich and feed out a single paper tape at a constant speed; a pair of slip rollers including a driving roller that is configured to be rotated at a surface speed of more than 1.000 times as compared with a constant speed of the pair of feeding rollers, the pair of slip rollers being configured to sandwich the single paper tape and feed out the single paper tape while slipping the driving roller with respect to the single paper tape; and a covering machine provided with a single covering unit (26; 91) having a false-twisting mechanism (81; 83) configured to perform, with a first yarn when added in use, false-twisting on the single paper tape fed out by the pair of slip rollers, the single covering unit having a covering mechanism configured to cover, with a second yarn when added in use, the single paper tape and the first yarn when added in use to the single paper tape in a twisting region or an untwisting region of the false-twisting mechanism, wherein the first yarn is at least one piece of yarn selected from a group including a first long fiber, a first spun yarn, and a compound yarn in which a first long fiber and a first spun yarn are combined, and the second yarn is at least one piece of yarn selected from a group including a second long fiber, a second spun yarn, and a compound yarn in which a second long fiber and a second spun yarn are combined.
A method of performing a handover at a mobile station, MS, in a wireless communication system including a macro base station, macro BS, and at least one femtocell base station, femtocell BS, , the method comprising: transmitting (S310) detected femtocell BS information including a result of channel estimation, information of a frequency used by a detected femtocell BS and identifier, ID, of the detected femtocell BS to the macro BS; receiving (S320) a list of femtocell BSs to which the MS is accessible from the macro BS, wherein the list of femtocell BSs is formed (S330) by the macro BS based on the information of the frequency used by the detected femtocell BS and the ID of the detected femtocell BS; selecting (S330) one of the list of femtocell BSs; and performing (S340) the handover to the one of the list of femtocell BSs from the macro BS. transmitting (S310) detected femtocell BS information including a result of channel estimation, information of a frequency used by a detected femtocell BS and identifier, ID, of the detected femtocell BS to the macro BS; receiving (S320) a list of femtocell BSs to which the MS is accessible from the macro BS, wherein the list of femtocell BSs is formed (S330) by the macro BS based on the information of the frequency used by the detected femtocell BS and the ID of the detected femtocell BS; selecting (S330) one of the list of femtocell BSs; and performing (S340) the handover to the one of the list of femtocell BSs from the macro BS.
A portal gear for a drive system of a model vehicle comprising: a drive shaft coupled to an input gear within a housing , the housing containing the input gear and an output gear , and the drive shaft transferring a rotational torque from the input gear to the output gear via a gear reduction; a portal axle directly coupled to the output gear ; a bearing and an inner bearing rotatively supporting the output gear ; and a first and second input gear supports rotatively supporting the input gear in the housing , characterised in that : the drive shaft is coupled to the input gear via a universal joint , and a center of the universal joint is within the first input gear support . a drive shaft coupled to an input gear within a housing , the housing containing the input gear and an output gear , and the drive shaft transferring a rotational torque from the input gear to the output gear via a gear reduction; a portal axle directly coupled to the output gear ; a bearing and an inner bearing rotatively supporting the output gear ; and a first and second input gear supports rotatively supporting the input gear in the housing , characterised in that : the drive shaft is coupled to the input gear via a universal joint , and a center of the universal joint is within the first input gear support .
A catalyst for dehydration of glycerin wherein the catalyst is ZrZn 0.02 W 0.1 P 2 H x O y , Zr 0.9 Fe 0.1 W 0.1 P 2 H x O y , Zr 0.9 V 0.1 W 0.1 P 2 H x O y , Zr 0.9 Nb 0.02 Fe 0.1 W 0.1 P 2 H x O y , Zr 0.9 Zn 0.02 Fe 0.1 W 0.1 P 2 H x O y , Zr 0.9 Zn 0.02 V 0.1 W 0.1 P 2 H x O y , Zr 0.8 Zn 0.02 (FeV) 0.1 W 0.1 P 2 H x O y , Zr 0.8 Zn 0.02 Fe 0.2 W 0.1 P 2 H x O y , Zr 0.8 Zn 0.02 V 0.2 W 0.1 P 2 H x O y , or Zr 0.95 Zn 0.02 V 0.05 W 0.1 P 2 H x O y , x is 2 to 6, and y is 1 to 3, obtainable by a preparation method of a catalyst for dehydration of glycerin, comprising the step of mixing one or more precursors selected from the group consisting of precursors of V, Fe, Nb, and Zn, a zirconium precursor, a phosphorus precursor, and a tungsten precursor, followed by drying and calcining to produce a catalyst, wherein the catalyst is ZrZn 0.02 W 0.1 P 2 H x O y , Zr 0.9 Fe 0.1 W 0.1 P 2 H x O y , Zr 0.9 V 0.1 W 0.1 P 2 H x O y , Zr 0.9 Nb 0.02 Fe 0.1 W 0.1 P 2 H x O y , Zr 0.9 Zn 0.02 Fe 0.1 W 0.1 P 2 H x O y , Zr 0.9 Zn 0.02 V 0.1 W 0.1 P 2 H x O y , Zr 0.8 Zn 0.02 (FeV) 0.1 W 0.1 P 2 H x O y , Zr 0.8 Zn 0.02 Fe 0.2 W 0.1 P 2 H x O y , Zr 0.8 Zn 0.02 V 0.2 W 0.1 P 2 H x O y , or Zr 0.95 Zn 0.02 V 0.05 W 0.1 P 2 H x O y , x is 2 to 6, and y is 1 to 3, wherein the method further includes a step of molding and assembling the calcined product after the drying and calcining step, or before the drying step, the step of molding and assembling is performed by mixing with a coagulant containing a sol or a slurry and an alcohol in the form of a solution containing an inorganic metal component, followed by extrusion.
A food steaming device, comprising: a base ; a heating device , located within the base, for converting water into steam; a water supply device and a steam container for receiving food arranged on the base, wherein the steam container comprises a steam container body and a container lid received on the steam container body; a first steam outlet provided on the heating device to inject steam into the steam container ; and wherein the food steaming device also has a fan device that comprises a fan and a driving mechanism including a motor disposed in the base for powering the fan, said fan being arranged to help evenly distribute the steam in the steam container ; wherein the bottom of the steam container is provided with a second steam vent that facilitates the flow of steam; and characterized in that the fan , a central axis of which is connected to the motor via a drive shaft , is arranged in the steam container body ; and wherein the container lid is provided with a first steam vent configured to enable a food temperature probe to pass through. a base ; a heating device , located within the base, for converting water into steam; a water supply device and a steam container for receiving food arranged on the base, wherein the steam container comprises a steam container body and a container lid received on the steam container body; a first steam outlet provided on the heating device to inject steam into the steam container ; and wherein the food steaming device also has a fan device that comprises a fan and a driving mechanism including a motor disposed in the base for powering the fan, said fan being arranged to help evenly distribute the steam in the steam container ; wherein the bottom of the steam container is provided with a second steam vent that facilitates the flow of steam; and characterized in that the fan , a central axis of which is connected to the motor via a drive shaft , is arranged in the steam container body ; and wherein the container lid is provided with a first steam vent configured to enable a food temperature probe to pass through.
Cooking oven for foodstuffs comprising: - a cooking chamber , wherein foodstuffs can be placed for being cooked, having a bottom wall provided with a first cooking chamber outlet positioned in such a way to receive grease collected in said bottom wall ; - a grease conduit configured for draining grease from said cooking chamber ; wherein said first cooking chamber outlet is fluidly connected to said grease conduit , wherein said cooking oven further comprises: - a heating device configured for heating the internal of said cooking chamber , - a vapour outlet duct configured for discharging vapour from said cooking chamber characterized in that said bottom wall of said cooking chamber is provided with a second cooking chamber outlet , distinct from said first cooking chamber outlet and fluidly connected to said vapour outlet duct , and wherein the inlet border of said second cooking chamber outlet is placed at a raised position with respect to the inlet border of said first cooking chamber outlet . - a cooking chamber , wherein foodstuffs can be placed for being cooked, having a bottom wall provided with a first cooking chamber outlet positioned in such a way to receive grease collected in said bottom wall ; - a grease conduit configured for draining grease from said cooking chamber ; wherein said first cooking chamber outlet is fluidly connected to said grease conduit , wherein said cooking oven further comprises: - a heating device configured for heating the internal of said cooking chamber , - a vapour outlet duct configured for discharging vapour from said cooking chamber - a heating device configured for heating the internal of said cooking chamber , - a vapour outlet duct configured for discharging vapour from said cooking chamber said bottom wall of said cooking chamber is provided with a second cooking chamber outlet , distinct from said first cooking chamber outlet and fluidly connected to said vapour outlet duct , and wherein the inlet border of said second cooking chamber outlet is placed at a raised position with respect to the inlet border of said first cooking chamber outlet .
A pharmaceutical formulation comprising diazoxide choline for use in treating obesity, or preventing weight gain in an obesity prone subject, comprising administering to said subject a therapeutically effective amount of said pharmaceutical formulation.
A rotation support device for a pinion shaft that supports a pinion shaft with a pinion gear provided on one end, inside a housing by way of a pair of rolling bearings that are separated from each other in the axial direction such that the pinion shaft can rotate freely and can support an axial load from both directions; of the rolling bearings , the rolling bearing on the pinion gear side being a tandem double-row angular contact ball bearing that is capable of supporting an axial load that acts on the pinion shaft in a direction from the pinion gear side to the side opposite from the pinion gear side, and the rolling bearing on the side opposite from the pinion gear side being a single-row angular contact ball bearing that is capable of supporting an axial load that acts on the pinion shaft in a direction from the side opposite from the pinion gear side to the pinion gear side; and of both ball rows of the tandem double-row angular contact ball bearing the pitch-circle diameter of the ball row on the pinion gear side is larger than the pitch-circle diameter of the ball row on the side opposite from the pinion gear side, and characterized in that the radial clearance of the ball row on the pinion gear side is less than the radial clearance of the ball row on the side opposite from the pinion gear side.