mhurhangee/patent-ind-claim-en huggingface dataset:
A panel for a cooking hob, the panel being formed of an electrically and thermally insulative material, the panel comprising: an upper surface which provides a cooking surface in use; a lower surface which is opposed to the upper surface ; the upper surface having a plurality of rows of plural resistors arrayed across the upper surface ; the lower surface having a plurality of rows of plural resistors arrayed across the lower surface corresponding to the rows of plural resistors arrayed across the upper surface ; and plural electrically conductive pins extending from the upper surface into the body of the panel towards the lower surface , each pin being electrically connected at a first end to a junction between a respective pair of serially connected resistors of the upper surface ; wherein the resistors in each row of the upper surface are normally electrically connected in series with each other and the resistors in each row of the lower surface are normally not electrically connected with each other; each pin being arranged such that when heat is applied to a region of the upper surface corresponding to the first end of the pin , the pin expands such that the second end of the pin makes an electrical connection to the corresponding pair of resistors of the lower surface , thereby electrically connecting said pair of resistors of the lower surface in series with each other and with the corresponding pair of resistors of the upper surface . an upper surface which provides a cooking surface in use; a lower surface which is opposed to the upper surface ; the upper surface having a plurality of rows of plural resistors arrayed across the upper surface ; the lower surface having a plurality of rows of plural resistors arrayed across the lower surface corresponding to the rows of plural resistors arrayed across the upper surface ; and plural electrically conductive pins extending from the upper surface into the body of the panel towards the lower surface , each pin being electrically connected at a first end to a junction between a respective pair of serially connected resistors of the upper surface ; wherein the resistors in each row of the upper surface are normally electrically connected in series with each other and the resistors in each row of the lower surface are normally not electrically connected with each other; each pin being arranged such that when heat is applied to a region of the upper surface corresponding to the first end of the pin , the pin expands such that the second end of the pin makes an electrical connection to the corresponding pair of resistors of the lower surface , thereby electrically connecting said pair of resistors of the lower surface in series with each other and with the corresponding pair of resistors of the upper surface .
A washstand assembly comprising a washstand and a fastening device for a front-wall installation of the washstand, the fastening device comprising a mounting bracket which forms a support for the washstand, the mounting bracket being designed such that the washstand is able to be fastened to the mounting bracket so as to be displaceable to a service position in relation to a wall at a distance to a usage position, and the fastening device comprising a drain channel , characterized in that the mounting bracket is made of two angle brackets connected to each other via a traverse .
An outdoor unit for an air conditioner, comprising: a base defining a lower outer appearance of the outdoor unit; a plurality of suction panels forming a front surface, a right side surface, a left side surface, and a rear surface of the outdoor unit; a compressor for compressing a refrigerant; a heat exchanger for heat-exchanging the refrigerant; at least one refrigerant tube connected to the compressor and the heat exchanger ; a plurality of service valve assemblies connected to the at least one refrigerant tube ; and a plurality of connection tubes respectively connected to a corresponding one of the plurality of service valve assemblies , the plurality of connection tubes extending through the base , characterized in that the plurality of connection tubes are aligned either in a first alignment according to which the plurality of connection tubes extend, under the base , toward the front surface of the outdoor unit or in a second alignment according to which the plurality of connection tubes extend, under the base , toward a lateral side of the outdoor unit, wherein positions of the plurality of connection tubes in the second alignment respectively correspond to positions thereof in the first alignment being turned over. a base defining a lower outer appearance of the outdoor unit; a plurality of suction panels forming a front surface, a right side surface, a left side surface, and a rear surface of the outdoor unit; a compressor for compressing a refrigerant; a heat exchanger for heat-exchanging the refrigerant; at least one refrigerant tube connected to the compressor and the heat exchanger ; a plurality of service valve assemblies connected to the at least one refrigerant tube ; and a plurality of connection tubes respectively connected to a corresponding one of the plurality of service valve assemblies , the plurality of connection tubes extending through the base , characterized in that the plurality of connection tubes are aligned either in a first alignment according to which the plurality of connection tubes extend, under the base , toward the front surface of the outdoor unit or in a second alignment according to which the plurality of connection tubes extend, under the base , toward a lateral side of the outdoor unit, wherein positions of the plurality of connection tubes in the second alignment respectively correspond to positions thereof in the first alignment being turned over.
A panel mount comprising: a support ; a plurality of fastening elements spaced along the support ; each fastening element has a fastener-support mating portion for engagement with a corresponding support-fastener mating portion of the support ; the support having the corresponding support-fastener mating portions disposed there along, wherein each fastening element is configured for engaging at least one inner surface of a panel member to apply an engaging force that is directed laterally outwardly, relative to the panel member , when the panel member is engaged by the fastening element , whereby each fastening element comprises a first end with an extension , the extension including at least two sets of downwardly directed extensions extending at different heights downwardly from the body of the extension towards lateral sides of a panel member for bearing against inner surfaces of the panel member to apply an engaging force in a direction laterally outwardly relative to the panel member , whereby said fastening element has the fastener-support mating portion at a second end for engagement with the corresponding support-fastener mating portion of the support , wherein the support has openings spaced along the support ; characterized in that the openings are spaced along an elongate side of the support that is opposite the support-fastener mating portions ; each fastening element having to be pushed through a corresponding one of the openings towards the corresponding support-fastener mating portion and engage therewith to hold the fastening element to the support and each fastening element receives a panel member extending through the associated opening of the support .
Separating stage for inertial separation of components contained in a fluid flowing through it, in particular paint particles and/or paint agglomerates, wherein at least one separating segment is provided which has on the inlet side at least one acceleration section for the fluid, in which the fluid is accelerated in a through-flow direction , and in that a first impaction surface for components contained in the fluid is arranged downstream of the acceleration section , characterised in that a second impaction surface is arranged downstream of the first impaction surface , which second impaction surface is a rear side of a boundary wall of the acceleration section , wherein the inner side of the acceleration section serves for acceleration of the fluid and the outer side serves as a curved portion of the acceleration section as the second impaction surface , wherein the first impaction surface has a baffle region and a curved portion following in the flow direction for deflecting the direction of the fluid by more than 270° with respect to the through-flow direction of the fluid in the acceleration section , wherein an end edge of the curved portion of the first impaction surface is oriented towards the second impaction surface , and wherein the curved portion is curved with a constant or decreasing radius of curvature. wherein at least one separating segment is provided which has on the inlet side at least one acceleration section for the fluid, in which the fluid is accelerated in a through-flow direction , and in that a first impaction surface for components contained in the fluid is arranged downstream of the acceleration section , characterised in that a second impaction surface is arranged downstream of the first impaction surface , which second impaction surface is a rear side of a boundary wall of the acceleration section , wherein the inner side of the acceleration section serves for acceleration of the fluid and the outer side serves as a curved portion of the acceleration section as the second impaction surface , wherein the first impaction surface has a baffle region and a curved portion following in the flow direction for deflecting the direction of the fluid by more than 270° with respect to the through-flow direction of the fluid in the acceleration section , wherein an end edge of the curved portion of the first impaction surface is oriented towards the second impaction surface , and wherein the curved portion is curved with a constant or decreasing radius of curvature.
System comprising a threaded pin, wherein the threaded pin comprises: - a base (1; 101; 201), - a tip section (2; 102; 202) spaced apart from the base (1; 101; 201) in the direction of a longitudinal axis (L) of the threaded pin, wherein the tip section (2; 102; 202) comprises a bridge section (3; 103; 203), - a first side wall (4; 104; 204) with an outer profile (5; 105; 205), which extends from the bridge section (3; 103; 203) to a first base part (8; 108; 208), and a second side wall (6; 106; 206) with an outer profile (7; 107; 207) that extends from the bridge section (3; 103; 203) to a second base part (9; 109; 209), wherein the first side wall (4; 104; 204) is formed from another part of the starting material than the second side wall (6; 106; 206) and the first base part (8; 108; 208) is formed from another part of the starting material than the second base part (9; 109; 209); wherein a part of the first base part (8; 108; 208) engages a part of the second base part (9; 109; 209) and/or that a part of the first base part (8; 108; 208) is connected with a part of the second base part (9; 109; 209); and/or a part of the first side wall (4; 104; 204) engages a part of the second side wall (6; 106; 206) and/or a part of the first side wall (4; 104; 204) is connected with a part of the second side wall (6; 106; 206), characterised by a take-up (301; 401), in which the threaded pin can be held transverse and moveable to its longitudinal axis (L). - a base (1; 101; 201), - a tip section (2; 102; 202) spaced apart from the base (1; 101; 201) in the direction of a longitudinal axis (L) of the threaded pin, wherein the tip section (2; 102; 202) comprises a bridge section (3; 103; 203), - a first side wall (4; 104; 204) with an outer profile (5; 105; 205), which extends from the bridge section (3; 103; 203) to a first base part (8; 108; 208), and a second side wall (6; 106; 206) with an outer profile (7; 107; 207) that extends from the bridge section (3; 103; 203) to a second base part (9; 109; 209), wherein the first side wall (4; 104; 204) is formed from another part of the starting material than the second side wall (6; 106; 206) and the first base part (8; 108; 208) is formed from another part of the starting material than the second base part (9; 109; 209);
A method performed by a controlling unit in a master-slave system of interconnected units , wherein each of said interconnected units comprises at least one port via which said interconnection is realized, and wherein at least a subset of said interconnected units comprises at least one cascading port, said method comprising a system start-up procedure that comprises: - transmitting at least one first request for information to at least one port on the controlling unit , - receiving , from a first unit of said interconnected units , a response to said at least one first request, said response comprising information that identifies the first unit, the information further comprising information that identifies at least one cascading port on the first unit, wherein the first unit is connected to the controlling unit via said at least one port on the controlling unit , - transmitting a second request for information to said at least one cascading port on the first unit, - receiving , from a second unit of said interconnected units , a response to said second request, said response comprising information that identifies the second unit, the information further comprising information that identifies any cascading port on the second unit, wherein the second unit is connected to the first unit via said at least one cascading port on the first unit, - assigning a respective unique address associated with the first unit and the second unit, - recording the assigned unique addresses together with the information that identifies the first and second units and the information that identifies at least one cascading port on the first and second units, and - transmitting the recorded unique addresses to the first unit and to the second unit. - transmitting at least one first request for information to at least one port on the controlling unit , - receiving , from a first unit of said interconnected units , a response to said at least one first request, said response comprising information that identifies the first unit, the information further comprising information that identifies at least one cascading port on the first unit, wherein the first unit is connected to the controlling unit via said at least one port on the controlling unit , - transmitting a second request for information to said at least one cascading port on the first unit, - receiving , from a second unit of said interconnected units , a response to said second request, said response comprising information that identifies the second unit, the information further comprising information that identifies any cascading port on the second unit, wherein the second unit is connected to the first unit via said at least one cascading port on the first unit, - assigning a respective unique address associated with the first unit and the second unit, - recording the assigned unique addresses together with the information that identifies the first and second units and the information that identifies at least one cascading port on the first and second units, and - transmitting the recorded unique addresses to the first unit and to the second unit.
A method for forming a through-via in a substrate, the method comprising: providing a substrate having a first surface and a second surface opposite the first surface; and directing, during a drilling period having a duration less than 100μs, a focused beam of laser pulses into the substrate at a location through the first surface of the substrate and, subsequently, through the second surface of the substrate, wherein the focused beam of laser pulses has a wavelength to which the substrate is at least substantially transparent, wherein an optical intensity of the focused beam of laser pulses at the substrate is less than an optical breakdown intensity of the substrate, wherein the focused beam of laser pulses has a Gaussian energy distribution, wherein the focused beam of laser pulses has a pulse repetition rate greater than 5 MHz, and wherein laser pulses within the focused beam of laser pulses have a pulse width greater than 200 fs, wherein a beam waist of the focused beam of laser pulses is closer to the second surface of the substrate than to the first surface of the substrate, and wherein the focused beam of laser pulses has a pulse repetition rate, a peak optical intensity at the substrate and an average power at the substrate sufficient to: melt a region of the substrate near the second surface, thereby creating a melt zone within the substrate; propagate the melt zone toward the first surface; and vaporize or boil material of the substrate and located within the melt zone. providing a substrate having a first surface and a second surface opposite the first surface; and directing, during a drilling period having a duration less than 100μs, a focused beam of laser pulses into the substrate at a location through the first surface of the substrate and, subsequently, through the second surface of the substrate, wherein the focused beam of laser pulses has a wavelength to which the substrate is at least substantially transparent, wherein an optical intensity of the focused beam of laser pulses at the substrate is less than an optical breakdown intensity of the substrate, wherein the focused beam of laser pulses has a Gaussian energy distribution, wherein the focused beam of laser pulses has a pulse repetition rate greater than 5 MHz, and wherein laser pulses within the focused beam of laser pulses have a pulse width greater than 200 fs, wherein a beam waist of the focused beam of laser pulses is closer to the second surface of the substrate than to the first surface of the substrate, and wherein the focused beam of laser pulses has a pulse repetition rate, a peak optical intensity at the substrate and an average power at the substrate sufficient to: melt a region of the substrate near the second surface, thereby creating a melt zone within the substrate; propagate the melt zone toward the first surface; and melt a region of the substrate near the second surface, thereby creating a melt zone within the substrate; propagate the melt zone toward the first surface; and vaporize or boil material of the substrate and located within the melt zone.
A capsule polishing brush extending along an axis and having a length of at least 0.2 metres measured along the axis , the brush comprising: • bristles for conveying the capsules from one end of the brush to another end, the conveying bristles being arranged around the axis along the turns of a helical conveying ramp of the capsules; • bristles for polishing the capsules having a free end, the polishing bristles being between the turns of the helical conveying ramp, the diameter of the brush at the free end of the polishing bristles between the turns increasing from one end of the brush . • bristles for conveying the capsules from one end of the brush to another end, the conveying bristles being arranged around the axis along the turns of a helical conveying ramp of the capsules; • bristles for polishing the capsules having a free end, the polishing bristles being between the turns of the helical conveying ramp, the diameter of the brush at the free end of the polishing bristles between the turns increasing from one end of the brush .
A blood plasma and blood cell separation device , comprising: a first body having an injection port ; a blood plasma separation membrane disposed on the first body ; and a second body movably assembled to the first body and having a collecting stage , wherein when a blood enters the blood plasma separation membrane from the injection port of the first body , a blood plasma in the blood plasma separation membrane is separated by a capillary force between the collecting stage of the second body and the blood plasma separation membrane , characterized in that the collecting stage has a collecting surface and a sampling recess on the collecting stage , wherein the blood plasma enters in the sampling recess by a relative movement between the first body and the second body . a first body having an injection port ; a blood plasma separation membrane disposed on the first body ; and a second body movably assembled to the first body and having a collecting stage , wherein when a blood enters the blood plasma separation membrane from the injection port of the first body , a blood plasma in the blood plasma separation membrane is separated by a capillary force between the collecting stage of the second body and the blood plasma separation membrane , characterized in that the collecting stage has a collecting surface and a sampling recess on the collecting stage , wherein the blood plasma enters in the sampling recess by a relative movement between the first body and the second body .
A method for data transmission, comprising: acquiring, by a terminal device, target resource configuration information, wherein the target resource configuration information corresponds to target service related information determined by the terminal device ; and sending, by the terminal device, according to the target resource configuration information, a data packet of the target service , wherein the target resource configuration information comprises at least one of the following information: a probability of reserving resources for sending the data packet, a probability of sending the data packet. acquiring, by a terminal device, target resource configuration information, wherein the target resource configuration information corresponds to target service related information determined by the terminal device ; and sending, by the terminal device, according to the target resource configuration information, a data packet of the target service , wherein the target resource configuration information comprises at least one of the following information: a probability of reserving resources for sending the data packet, a probability of sending the data packet.