mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for controlling temperature in a plurality of samples, said apparatus comprising: a multi-receptacle sample block, a thermoelectric module, and a heat sink block, all shaped to be capable of arrangement in a stacked configuration in which said sample block is in thermal contact with said thermoelectric module and said thermoelectric module is in thermal contact with said heat sink block, a support frame sized to receive said sample block, said thermoelectric module, and said heat sink block in said stacked configuration, a first loop-shaped gasket sized to encircle said sample block along a peripheral surface thereof, and thereby form a seal between said sample block and said support frame, and a second loop-shaped gasket sized to encircle said heat sink block along a peripheral surface thereof and thereby form a seal between said heat sink block and said support frame, said sample block said heat sink block, said support frame, and said loop-shaped gaskets (31, 32) thereby together forming a sealed enclosure surrounding said thermoelectric module and protecting said thermoelectric module from atmospheric moisture. a multi-receptacle sample block, a thermoelectric module, and a heat sink block, all shaped to be capable of arrangement in a stacked configuration in which said sample block is in thermal contact with said thermoelectric module and said thermoelectric module is in thermal contact with said heat sink block, a support frame sized to receive said sample block, said thermoelectric module, and said heat sink block in said stacked configuration, a first loop-shaped gasket sized to encircle said sample block along a peripheral surface thereof, and thereby form a seal between said sample block and said support frame, and a second loop-shaped gasket sized to encircle said heat sink block along a peripheral surface thereof and thereby form a seal between said heat sink block and said support frame,
A method of operating a Radio Network Controller, RNC, of a communication network during a soft handover process of a mobile terminal between a first Base Station, BS, and at least one second BS that are connected to the RNC, the method comprising: - receiving, at a Medium Access Control, MAC, protocol layer of the RNC, a first data frame stream from the first BS via a first data path and a second data frame stream from the second BS via a second data path; - determining a relative delay between the data frames of the first data frame stream and the second data frame stream regarding their arrival at the RNC, wherein the relative delay takes into account different systematic propagation durations from the first BS and the second BS to the RNC; and - merging, at the MAC protocol layer, data frames of the first and the second data frame stream into a third data frame stream which is transmitted to a protocol layer above the MAC protocol layer, wherein the merging of the data frames is carried out in dependence on the relative delay. - receiving, at a Medium Access Control, MAC, protocol layer of the RNC, a first data frame stream from the first BS via a first data path and a second data frame stream from the second BS via a second data path; - determining a relative delay between the data frames of the first data frame stream and the second data frame stream regarding their arrival at the RNC, wherein the relative delay takes into account different systematic propagation durations from the first BS and the second BS to the RNC; and - merging, at the MAC protocol layer, data frames of the first and the second data frame stream into a third data frame stream which is transmitted to a protocol layer above the MAC protocol layer, wherein the merging of the data frames is carried out in dependence on the relative delay.
Heat exchanger, comprising - at least one gas flow channel (231, 233) for the flow of hot gas; - at least one water flow channel (100, 235) for the flow of water; - a metal wall (241, 243) delimiting the gas flow channel from the water flow channel, for exchanging heat between the hot gas in the gas flow channel and water in the water flow channel in order to heat the water; wherein the at least one water flow channel comprises a number of consecutive parallel straight segments (103, 105), wherein two consecutive parallel straight segments are separated by a wall and by a U-turn; wherein said U-turn comprises an upstream section and a downstream section, wherein the upstream and the downstream sections are defined as the sections of said U-turn delimited on the one hand by the plane of the wall separating the two consecutive parallel straight segments; and on the other hand by the plane through the end section of the wall separating the two consecutive parallel straight segments, that is the plane which is parallel with the width direction of the water flow channel and which is perpendicular to the plane of the wall separating the two consecutive parallel straight segments; wherein the upstream section is located in the upstream part of said U-turn; and wherein the downstream section is located in the downstream part of said U-turn; characterized in that the width of the parallel straight segment immediately downstream of the U-turn is smaller than the width of the parallel straight segment immediately upstream of the U-turn; and/or the height of the parallel straight segment immediately downstream of the U-turn is smaller than the height of the parallel straight segment immediately upstream of the U-turn; and in that in at least two of said U-turns the upstream section has a volume that is at least 20% lower than the volume of the downstream section. - at least one gas flow channel (231, 233) for the flow of hot gas; - at least one water flow channel (100, 235) for the flow of water; - a metal wall (241, 243) delimiting the gas flow channel from the water flow channel, for exchanging heat between the hot gas in the gas flow channel and water in the water flow channel in order to heat the water;
A straddled vehicle comprising: a handle; a headlight disposed in front of the handle with regard to a back-and-forth direction of the vehicle; a handle cover covering the handle and the headlight from front and behind with regard to the back-and-forth direction of the vehicle; a first support section fixed to the handle, the first support section supporting the headlight; a second support section fixed to the handle, the second support section supporting the headlight on a lower side than the first support section with regard to an up-and-down direction of the vehicle; and a meter unit disposed behind the headlight with regard to the back-and-forth direction of the vehicle, characterized in that the first support section supports the meter unit. a handle; a headlight disposed in front of the handle with regard to a back-and-forth direction of the vehicle; a handle cover covering the handle and the headlight from front and behind with regard to the back-and-forth direction of the vehicle; a first support section fixed to the handle, the first support section supporting the headlight; a second support section fixed to the handle, the second support section supporting the headlight on a lower side than the first support section with regard to an up-and-down direction of the vehicle; and a meter unit disposed behind the headlight with regard to the back-and-forth direction of the vehicle, characterized in that the first support section supports the meter unit.
A method compatible with a 10GE Local Area Network, LAN, port and a Wide Area Network, WAN, port, which is applied to a device containing a 10GE physical layer channel compatible with a 10GE LAN port working mode and a 10GE WAN port working mode, the method comprising the following steps of: after receiving a mode selection command sent from an upper layer, the device setting the 10GE physical layer channel into a corresponding working mode according to working mode information carried in the command, and providing the 10GE physical layer channel with a working clock needed when the 10GE physical layer channel works in the working mode; characterized in that three frequency division registers are provided within the device, and the device has a source clock input; the step of the device providing the 10GE physical layer channel with a working clock needed when the 10GE physical layer channel works in the working mode comprises: the device outputting a corresponding value to each frequency division register respectively according to the working mode information carried in the mode selection command, a circuit in the device performing an operation on the source clock input according to an internally configured algorithm based on the value of each frequency division register, and outputting an output clock obtained after the operation to the 10GE physical layer channel, wherein the values output by the device to the three frequency division registers are N1, N2, N3 respectively, the internally configured algorithm is: F(out)=(F(in)/N3)×N2/N1, wherein F(out) is the output clock, and F(in) is the source clock input. after receiving a mode selection command sent from an upper layer, the device setting the 10GE physical layer channel into a corresponding working mode according to working mode information carried in the command, and providing the 10GE physical layer channel with a working clock needed when the 10GE physical layer channel works in the working mode; characterized in that three frequency division registers are provided within the device, and the device has a source clock input; the step of the device providing the 10GE physical layer channel with a working clock needed when the 10GE physical layer channel works in the working mode comprises: the device outputting a corresponding value to each frequency division register respectively according to the working mode information carried in the mode selection command, a circuit in the device performing an operation on the source clock input according to an internally configured algorithm based on the value of each frequency division register, and outputting an output clock obtained after the operation to the 10GE physical layer channel, wherein the values output by the device to the three frequency division registers are N1, N2, N3 respectively, the internally configured algorithm is: F(out)=(F(in)/N3)×N2/N1, wherein F(out) is the output clock, and F(in) is the source clock input.
An electric range, comprising: a case having a first through hole (1023a, 1023b, 1023c) and a second through hole (1024a, 1024b, 1024c); a heating unit (106a, 106b, 106c, 106d, 106e) disposed in the case, and configured to heat an object to be heated; a driving circuit (110a, 110b, 110c) configured to drive the heating unit (106a, 106b, 106c, 106d, 106e) and disposed between the first through hole (1023a, 1023b, 1023c) and the second through hole (1024a, 1024b, 1024c); an air blowing fan (118a, 118b, 118c) disposed in the case at the first through hole (1023a, 1023b, 1023c) to introduce air through the first through hole (1023a, 1023b, 1023c) into the case; and an air guide (120a, 120b, 120c) disposed between the air blowing fan (118a, 118b, 118c) and the second through hole (1024a, 1024b, 1024c) and configured to guide air from the air blowing fan (118a, 118b, 118c) to the driving circuit (110a, 110b, 110c) and then to the second through hole (1024a, 1024b, 1024c) to discharge the air therethrough; wherein an end of the air guide (120a, 120b, 120c) is disposed adjacent to the second through hole (1024a, 1024b, 1024c); characterized in that: a first connecting portion is formed at the end the air guide (120a, 120b, 120c) adjacent to the second through hole (1024a, 1024b, 1024c), wherein the first connecting portion passes through the second through hole (1024a, 1024b, 1024c) to couple said end of the air guide (120a, 120b, 120c) to the case. a case having a first through hole (1023a, 1023b, 1023c) and a second through hole (1024a, 1024b, 1024c); a heating unit (106a, 106b, 106c, 106d, 106e) disposed in the case, and configured to heat an object to be heated; a driving circuit (110a, 110b, 110c) configured to drive the heating unit (106a, 106b, 106c, 106d, 106e) and disposed between the first through hole (1023a, 1023b, 1023c) and the second through hole (1024a, 1024b, 1024c); an air blowing fan (118a, 118b, 118c) disposed in the case at the first through hole (1023a, 1023b, 1023c) to introduce air through the first through hole (1023a, 1023b, 1023c) into the case; and an air guide (120a, 120b, 120c) disposed between the air blowing fan (118a, 118b, 118c) and the second through hole (1024a, 1024b, 1024c) and configured to guide air from the air blowing fan (118a, 118b, 118c) to the driving circuit (110a, 110b, 110c) and then to the second through hole (1024a, 1024b, 1024c) to discharge the air therethrough; wherein an end of the air guide (120a, 120b, 120c) is disposed adjacent to the second through hole (1024a, 1024b, 1024c);
System for determining the location of one or more occupied physical spaces (20, 20', 20"), the system comprising: one or more charging devices (40, 40', 40") configured to be arranged at the one or more physical spaces (20, 20', 20"), each of the charging devices comprising a charging unit configured for wireless power transfer to a mobile telecommunication device (60, 60') when the mobile telecommunication device (60, 60') is coupled to the charging unit (40, 40', 40"); one or more localisation units (30, 30', 30") associated with each of the charging devices (40, 40', 40"), wherein each of the localisation units (30, 30', 30") is configured to broadcast an information signal comprising identifying information of the localisation unit to the mobile telecommunication device; a controller configured to determine the location of an occupied physical space upon detection of the coupling between the mobile telecommunication device (60, 60') and one of the one or more charging devices (40, 40', 40"), wherein the location is determined based on the broadcast signal received by the mobile telecommunication device (60, 60'), characterized in that each of the one or more charging devices is configured to generate a trigger signal when a coupling between the charging device (40, 40', 40") and a mobile telecommunication device (60, 60') is detected and/or when the charging device (40, 40', 40") starts charging the mobile telecommunication device (60, 60'), and that each of the one or more localisation units (30, 30', 30") is configured to start broadcasting the information signal only if the trigger signal is generated. one or more charging devices (40, 40', 40") configured to be arranged at the one or more physical spaces (20, 20', 20"), each of the charging devices comprising a charging unit configured for wireless power transfer to a mobile telecommunication device (60, 60') when the mobile telecommunication device (60, 60') is coupled to the charging unit (40, 40', 40"); one or more localisation units (30, 30', 30") associated with each of the charging devices (40, 40', 40"), wherein each of the localisation units (30, 30', 30") is configured to broadcast an information signal comprising identifying information of the localisation unit to the mobile telecommunication device; a controller configured to determine the location of an occupied physical space upon detection of the coupling between the mobile telecommunication device (60, 60') and one of the one or more charging devices (40, 40', 40"), wherein the location is determined based on the broadcast signal received by the mobile telecommunication device (60, 60'), characterized in that each of the one or more charging devices is configured to generate a trigger signal when a coupling between the charging device (40, 40', 40") and a mobile telecommunication device (60, 60') is detected and/or when the charging device (40, 40', 40") starts charging the mobile telecommunication device (60, 60'), and that each of the one or more localisation units (30, 30', 30") is configured to start broadcasting the information signal only if the trigger signal is generated.
Spot welded joint of at least two steel sheets, wherein at least one sheet is made of an aluminium alloyed steel comprising, by weight percent: 0.05 ≤ C ≤ 0.21 % 4.0 ≤ Mn ≤ 7.0 % 0.5 ≤ Al ≤ 3.5 % Si ≤ 2.0 % Ti ≤ 0.2 % V ≤ 0.2 % Nb ≤ 0.2 % P ≤ 0.025 % B ≤ 0.0035 % S ≤ 0.004 % the balance of the composition being iron and unavoidable impurities resulting from the smelting, said aluminium alloyed steel sheet presenting a yield strength above or equal to 600 MPa, an ultimate tensile strength above or equal to 1000 MPa and uniform elongation above or equal to 15%, the microstructure of said aluminium alloyed steel sheet containing 20% to 50% of austenite, 40% to 80% of annealed ferrite, less than 25% of martensite and wherein the spot welded joint presents a molten zone microstructure containing more than 0.5 % of Al and containing a surface fraction of segregated areas lower than 1%, said segregated areas being zones larger than 20μm 2 containing an amount of phosphorous superior to said aluminium alloyed steel nominal phosphorus content.
An electronic power housing for the supply of an electric motor of a vehicle, including: - electronic components, - walls insulating mechanically these electronic components from the exterior, - at least one electrical connection pad (18, 20, 22, 24) arranged on an exterior face of these walls to be electrically coupled to a cable exterior to the housing, this connection pad being electrically coupled to the electronic components placed inside the housing, characterized in that this connection pad includes: - a printed circuit board forming a part of the wall of the housing and one face of which is exposed to the exterior of the housing, and at least one exterior electrical connection plane (60, 62, 140, 150) etched on this face, to be directly put in contact with the exterior cable, this plane being electrically coupled to the electronic components, - an interior electrical connection plane (64, 66, 160, 162) engraved on an interior face of the printed circuit board exposed to the interior of the housing, and - several conductive cross-pieces (90, 92, 94) fixedly joined on one side to the exterior electrical connection plane (60, 62) and on the other side to the interior electrical connection plane (64, 66) to electrically couple them permanently. - electronic components, - walls insulating mechanically these electronic components from the exterior, - at least one electrical connection pad (18, 20, 22, 24) arranged on an exterior face of these walls to be electrically coupled to a cable exterior to the housing, this connection pad being electrically coupled to the electronic components placed inside the housing, - a printed circuit board forming a part of the wall of the housing and one face of which is exposed to the exterior of the housing, and at least one exterior electrical connection plane (60, 62, 140, 150) etched on this face, to be directly put in contact with the exterior cable, this plane being electrically coupled to the electronic components, - an interior electrical connection plane (64, 66, 160, 162) engraved on an interior face of the printed circuit board exposed to the interior of the housing, and - several conductive cross-pieces (90, 92, 94) fixedly joined on one side to the exterior electrical connection plane (60, 62) and on the other side to the interior electrical connection plane (64, 66) to electrically couple them permanently.
- A simulation device of a dynamic munition-related environment for a projectile, wherein the device comprises: - a suspension device configured for suspending the projectile along its longitudinal direction so that the projectile in its suspended position is mounted free along its longitudinal axis, - a propulsion device configured for being arranged facing the rear end of the projectile in its suspended position at a predefined distance from it, and - an impactor configured for being propelled, by the propulsion device, at a predetermined velocity toward the rear end of the projectile in its suspended position, so as to strike the rear end of the projectile so as to reproduce a shock response spectrum specific to an exit of the projectile from a muzzle. - a suspension device configured for suspending the projectile along its longitudinal direction so that the projectile in its suspended position is mounted free along its longitudinal axis, - a propulsion device configured for being arranged facing the rear end of the projectile in its suspended position at a predefined distance from it, and - an impactor configured for being propelled, by the propulsion device, at a predetermined velocity toward the rear end of the projectile in its suspended position, so as to strike the rear end of the projectile so as to reproduce a shock response spectrum specific to an exit of the projectile from a muzzle.
Disrupting and dissociating device of solid biologic materials comprising: - a case defining at least one internal chamber; - at least one cutting element housed inside said chamber in order to define a loading chamber of biologic substances to be disrupted and a collecting chamber of disrupted biological substances; - at least one vane configured to take the biologic substances in contact with the cutting element and, cooperating with the cutting element, allow the disruption and the passage from the loading chamber to the collecting chamber of the disrupted biological substances, being at least one between the cutting element and the mobile vane with respect to the other; wherein the cutting element is a holed disk comprising micro-openings whose edges compose micro-blades for disruption and dissociation of the solid biologic material; characterized in that: - the cutting element is made through molding of polymeric material, namely TRIREX ® 3020 IR; - the micro-openings are holes having an internal surface shaped as a frustum of cone and an external surface shaped as a dome; - the micro-openings of the polymeric disk have a size included between 20 and 100 μm; and - each micro-opening of the holed polymeric disk is surrounded by four micro-blades. - a case defining at least one internal chamber; - at least one cutting element housed inside said chamber in order to define a loading chamber of biologic substances to be disrupted and a collecting chamber of disrupted biological substances; - at least one vane configured to take the biologic substances in contact with the cutting element and, cooperating with the cutting element, allow the disruption and the passage from the loading chamber to the collecting chamber of the disrupted biological substances, being at least one between the cutting element and the mobile vane with respect to the other; wherein the cutting element is a holed disk comprising micro-openings whose edges compose micro-blades for disruption and dissociation of the solid biologic material; characterized in that: - the cutting element is made through molding of polymeric material, namely TRIREX ® 3020 IR; - the micro-openings are holes having an internal surface shaped as a frustum of cone and an external surface shaped as a dome; - the micro-openings of the polymeric disk have a size included between 20 and 100 μm; and - each micro-opening of the holed polymeric disk is surrounded by four micro-blades. - the cutting element is made through molding of polymeric material, namely TRIREX ® 3020 IR; - the micro-openings are holes having an internal surface shaped as a frustum of cone and an external surface shaped as a dome; - the micro-openings of the polymeric disk have a size included between 20 and 100 μm; and - each micro-opening of the holed polymeric disk is surrounded by four micro-blades.