mhurhangee/ep-ind-claims huggingface dataset:
A drawer having a bottom, a rear wall, a front panel, and two lateral panels, which are each connected to the bottom via at least two or more adapters, one adapter being situated in the forward area adjacent to the front panel and the respective other adapter being situated in the rear area of the bottom adjacent to the rear wall in each case, wherein at least the adapters lying on the left side and the adapters lying on the right side are implemented having identical constructions to one another, and the rear wall is fixed on the particular rear adapter and the front panel is fixed on the particular forward adapter, into which a support retainer is inserted to accommodate a front panel support fastened on the front panel, characterized in that the adapters, as viewed in the displacement direction of the drawer, have an approximately rectangular insertion channel into which the support retainer can be inserted.
A bioadhesive formulation comprising a polycaprolactone dendrimer having a dendrimer core and a plurality of polycaprolactone chains extending from the dendrimer core, wherein at least one of the polycaprolactone chains has an end which is covalently attached with a diazirine, and wherein the diazirine converts to a carbene and/or a diazoalkyl when a stimulant is applied to the bioadhesive formulation.
A method implemented by a system comprising a mobile terminal and a device to be controlled, the method comprises the steps of: when a switching instruction is detected, the device entering an Access Point, AP, mode, wherein the AP mode is a Wifi AP mode; when it is determined that downloading via Internet a control program for controlling the device is unsuccessful, the mobile terminal issuing prompt information for prompting a user that downloading the control program for controlling the device via Internet is unsuccessful; when an instruction of converting a manner of acquiring the control program inputted by the user is detected, the mobile terminal receiving a Local Area Network, LAN, signal sent by the device after entering the AP mode, wherein the LAN signal is a Wifi broadcast signal; the device receiving an access request message sent by the mobile terminal according to the LAN signal; the mobile terminal establishing a LAN connection with the device according to the LAN signal, said LAN connection being a Wifi connection; and the mobile terminal downloading from the device, through the LAN connection, the control program for controlling said device. when a switching instruction is detected, the device entering an Access Point, AP, mode, wherein the AP mode is a Wifi AP mode; when it is determined that downloading via Internet a control program for controlling the device is unsuccessful, the mobile terminal issuing prompt information for prompting a user that downloading the control program for controlling the device via Internet is unsuccessful; when an instruction of converting a manner of acquiring the control program inputted by the user is detected, the mobile terminal receiving a Local Area Network, LAN, signal sent by the device after entering the AP mode, wherein the LAN signal is a Wifi broadcast signal; the device receiving an access request message sent by the mobile terminal according to the LAN signal; the mobile terminal establishing a LAN connection with the device according to the LAN signal, said LAN connection being a Wifi connection; and the mobile terminal downloading from the device, through the LAN connection, the control program for controlling said device.
Method for operating a sensor system having at least three sensor elements (1a to 1n) which can be attached to the surface of machines or components, wherein the sensor elements (1a to 1n) each have an electrode for forming electric fields (21 to 39), wherein the electrodes can be connected to a different electrical potential in such a way that the electrodes act as a transmitting electrode or as a receiving electrode (E1 to E6), wherein the electric fields (21 to 39) change during the approach of and/or in the event of contact with an object, wherein the sensor elements (1a to 1n) are controlled in succession in a certain temporal or local order by a control device, and wherein either at least two electric fields (21 to 39) are formed at the same time between a first sensor element (1a to 1n) acting as a transmitting electrode and two second sensor elements (1a to 1n) acting as a receiving electrode (E1 to E6) or between two first sensor elements (1a to 1n) acting as a transmitting electrode and a second sensor element (1a to 1n) acting as a receiving electrode (E1 to E6), characterized in that the sensor elements (1a to 1n) are arranged in areas of the machine that are of different relevance with respect to a risk of collision, and in that, according to the relevance of the areas, some electric fields (21 to 39) are formed at the same time and other electric fields (21 to 39) are formed in temporal succession, the relevant areas being monitored by means of electric fields (21 to 39) formed at the same time.
A paddle accessory for a game controller, the paddle accessory comprising: a blade sized and shaped for manual manipulation by a finger; a sensor-activation feature extending from the blade; a mounting interface spaced apart from the sensor-activation feature, the mounting interface being configured to selectively mate with a pivot of the game controller to removably affix the paddle accessory to the game controller without the use of tools, the paddle accessory being configured to rotate relative to the pivot to translate a touch force applied to the blade into an actuation force applied by the sensor-activation feature to a paddle-actuatable sensor interior an aperture of the game controller; and a stabilization fin positioned between the sensor-activation feature and the mounting interface, the stabilization fin configured to extend into a mating slot of the game controller wherein the blade is curved so as to be configured to follow a contour of a hand portion of the game controller that is configured to be gripped by a hand when attached to the game controller; and characterized in that the stabilization fin extends a first depth into the mating slot when no touch force is applied to the blade, and wherein the stabilization fin extends a second depth into the mating slot responsive to the touch force being applied to the blade, the second depth being greater than the first depth. a blade sized and shaped for manual manipulation by a finger; a sensor-activation feature extending from the blade; a mounting interface spaced apart from the sensor-activation feature, the mounting interface being configured to selectively mate with a pivot of the game controller to removably affix the paddle accessory to the game controller without the use of tools, the paddle accessory being configured to rotate relative to the pivot to translate a touch force applied to the blade into an actuation force applied by the sensor-activation feature to a paddle-actuatable sensor interior an aperture of the game controller; and a stabilization fin positioned between the sensor-activation feature and the mounting interface, the stabilization fin configured to extend into a mating slot of the game controller wherein the blade is curved so as to be configured to follow a contour of a hand portion of the game controller that is configured to be gripped by a hand when attached to the game controller; and characterized in that the stabilization fin extends a first depth into the mating slot when no touch force is applied to the blade, and wherein the stabilization fin extends a second depth into the mating slot responsive to the touch force being applied to the blade, the second depth being greater than the first depth.
An operating method of a repeater, the operating method comprising: receiving a first communication signal according to a first mobile communication standard; obtaining information about a frame start point of the first communication signal from the received first communication signal; generating a time division duplex, TDD, switching signal based on information about the frame start point of the received first communication signal; and controlling switching of an uplink and a downlink of the repeater that relays a second communication signal according to a second mobile communication standard based on the generated TDD switching signal, wherein the first mobile communication standard is an LTE standard or an LTE-A standard, and the second mobile communication standard is a 5G standard. receiving a first communication signal according to a first mobile communication standard; obtaining information about a frame start point of the first communication signal from the received first communication signal; generating a time division duplex, TDD, switching signal based on information about the frame start point of the received first communication signal; and controlling switching of an uplink and a downlink of the repeater that relays a second communication signal according to a second mobile communication standard based on the generated TDD switching signal, wherein the first mobile communication standard is an LTE standard or an LTE-A standard, and the second mobile communication standard is a 5G standard.
Device for launching a target, comprising a rotatable launch arm, launching means and motor means intended for cocking the arm via rotation of said arm and of an associated rotary shaft up to a position called "zero point", the launching means and the motor means being active on said shaft and the launching means being under tension without exerting torque on the arm in said "zero point" position, the device further comprising first and second means (10, 11, 19, 20, 21) for blocking the rotation of the arm, associated with the motor means and configured to cooperate with complementary blocking means interposed between the launching means and the rotary shaft of the arm, the first and second blocking means (10, 11, 19, 20, 21) and the complementary blocking means being configured to block the arm beyond the "zero point" over a predefined angular sector in the direction of rotation of the arm in a launch position and to free the arm beyond the launch position, the launching means being configured to relax in order to carry out the rotation of the arm for the launching of the target.
A method for producing nickel oxide nanoparticles, the method comprising: preparing Ni 2 powder and KOH powder; forming a mixed powder by mixing the Ni 2 powder with the KOH powder, wherein a molar ratio of the Ni 2 powder to the KOH powder in the mixed powder is 1: 1.6 to 1: 3; and heat-treating the mixed powder at a temperature of 90°C to 200°C. preparing Ni 2 powder and KOH powder; forming a mixed powder by mixing the Ni 2 powder with the KOH powder, wherein a molar ratio of the Ni 2 powder to the KOH powder in the mixed powder is 1: 1.6 to 1: 3; and heat-treating the mixed powder at a temperature of 90°C to 200°C.
A rock drilling rig comprising a carrier and at least two boom units (3a, 3b), the rock drilling rig comprises a first boom unit comprising a first rock drilling machine to be provided with the tool and the drill bit at the distal end of the tool, a second boom unit comprising at least one rack for accommodating at least one drill bit, characterized in that the second boom unit comprises a second rock drilling machine to be provided with the tool and the drill bit at the distal end of the tool, and that the first boom unit and the first rock drilling machine therein are configured to collect the drill bit from the at least one rack in the second boom unit.
An intake system of a vehicle, including an air cleaner case (1, 2) made from a non-conductive synthetic resin material and an air filter that is arranged inside the air cleaner case (1, 2) and positively charged, the intake system characterized by comprising a self discharge type static eliminator which is a conductive layer, which has a corner part and on which a positive charge is discharged or neutralized by electrons of air ions moving into the corner part when air moves around the self discharge type static eliminator, said self discharge type static eliminator decreasing an amount of electrification charge on a wall surface of the air cleaner case (1, 2) within a limited range about a location where the self discharge type static eliminator is installed, when the self discharge type static eliminator is installed on the wall surface of the air cleaner case (1, 2), wherein an peripheral edge part of the air filter is held by an air filter holding part of the air cleaner case (1, 2), and the self discharge type static eliminator is installed only on an outer wall surface of the air filter holding part of the air cleaner case (1, 2).
Ventilation, heating and/or air-conditioning system comprising a ventilation, heating and/or air-conditioning installation comprising at least: - a housing delimiting at least one circulation chamber for an air stream, comprising a first inlet arranged to admit into the housing an outside air stream and a second inlet arranged to admit into the housing an air stream from an interior of the vehicle, - at least one first heat exchanger, one second heat exchanger and one third heat exchanger each configured to produce a heat exchange between the air stream and a refrigerant running through a refrigerant circuit, the housing comprising a first supply inlet arranged to admit into the housing an outside air stream and a second supply inlet arranged to admit into the housing a recycled air stream, the first supply inlet and the second supply inlet being arranged downstream of the first heat exchanger, in the direction of flow of the air stream, characterized in that, the first heat exchanger, the second heat exchanger and the third heat exchanger belong to the same refrigerant circuit, and in that the system comprises a refrigerant circuit, inside which the refrigerant can circulate, comprising: - the first heat exchanger, used as evaporator, - the second heat exchanger, used as subcooler, - the third heat exchanger, used as condenser, - a fourth heat exchanger configured to produce a heat exchange between the refrigerant and a heat-transfer liquid, - a first expansion member, disposed between the first heat exchanger and the second heat exchanger on the refrigerant circuit, - a second expansion member, disposed between the third heat exchanger and the fourth heat exchanger on the refrigerant circuit, and a compressor, disposed between the first heat exchanger and the third heat exchanger on the refrigerant circuit. - a housing delimiting at least one circulation chamber for an air stream, comprising a first inlet arranged to admit into the housing an outside air stream and a second inlet arranged to admit into the housing an air stream from an interior of the vehicle, - at least one first heat exchanger, one second heat exchanger and one third heat exchanger each configured to produce a heat exchange between the air stream and a refrigerant running through a refrigerant circuit, the housing comprising a first supply inlet arranged to admit into the housing an outside air stream and a second supply inlet arranged to admit into the housing a recycled air stream, the first supply inlet and the second supply inlet being arranged downstream of the first heat exchanger, in the direction of flow of the air stream, - the first heat exchanger, used as evaporator, - the second heat exchanger, used as subcooler, - the third heat exchanger, used as condenser, - a fourth heat exchanger configured to produce a heat exchange between the refrigerant and a heat-transfer liquid, - a first expansion member, disposed between the first heat exchanger and the second heat exchanger on the refrigerant circuit, - a second expansion member, disposed between the third heat exchanger and the fourth heat exchanger on the refrigerant circuit, and
A method for determining and checking at least one exhaust gas parameter of a device under test by using a measurement system, wherein the device under test contains at least one combustion engine and optionally an exhaust gas aftertreatment system downstream of the combustion engine, comprising the steps of: - putting the device under test into a first constant operating mode, - verifying whether a constant operating mode is achieved, by measuring the emission of at least one exhaust gas component and/or of the air ratio in the exhaust gas of the device under test and by detecting and/or monitoring the variations in the value of the sampled emission or emissions during the operation of the device under test in the first constant operating mode, the method being characterized by - measuring a first emission value of the at least one exhaust gas component and determining a first air ratio from the exhaust gas composition during the verified first constant operating mode, wherein the emission value is in particular a concentration value of an exhaust gas component or a particle number value, - determining a first exhaust gas parameter by converting the first emission value to a predefined air ratio or to a stoichiometric combustion by multiplying the first emission value by the first air ratio. - putting the device under test into a first constant operating mode, - verifying whether a constant operating mode is achieved, by measuring the emission of at least one exhaust gas component and/or of the air ratio in the exhaust gas of the device under test and by detecting and/or monitoring the variations in the value of the sampled emission or emissions during the operation of the device under test in the first constant operating mode, - measuring a first emission value of the at least one exhaust gas component and determining a first air ratio from the exhaust gas composition during the verified first constant operating mode, wherein the emission value is in particular a concentration value of an exhaust gas component or a particle number value, - determining a first exhaust gas parameter by converting the first emission value to a predefined air ratio or to a stoichiometric combustion by multiplying the first emission value by the first air ratio.
An abrasive article comprising: a bonded abrasive body having microcrystalline alumina abrasive particles contained within a bond material, wherein the bonded abrasive body comprises an abrasive particle-to-bond material interfacial modulus of elasticity of at least 225 GPa; and wherein the bonded abrasive body comprises a bond content of at least 7 vol% and not greater than 12 vol% for a total volume of the bonded abrasive body, a porosity content of at least 42 vol% and not greater than 70 vol% for the total volume of the bonded abrasive body, and an abrasive particle content of at least 35 vol% and not greater than 50 vol% for the total volume of the bonded abrasive body; and wherein the bond material comprises a total content of a combination of alkali oxide compounds (R 2 O) and alkaline earth oxide compounds of at least 14 wt% for a total weight of the bond material, and a boron oxide (B 2 O 3) content of at least 11 wt% and not greater than 17 wt% of the total weight of the bond material. a bonded abrasive body having microcrystalline alumina abrasive particles contained within a bond material, wherein the bonded abrasive body comprises an abrasive particle-to-bond material interfacial modulus of elasticity of at least 225 GPa; and wherein the bonded abrasive body comprises a bond content of at least 7 vol% and not greater than 12 vol% for a total volume of the bonded abrasive body, a porosity content of at least 42 vol% and not greater than 70 vol% for the total volume of the bonded abrasive body, and an abrasive particle content of at least 35 vol% and not greater than 50 vol% for the total volume of the bonded abrasive body; and wherein the bond material comprises a total content of a combination of alkali oxide compounds (R 2 O) and alkaline earth oxide compounds of at least 14 wt% for a total weight of the bond material, and a boron oxide (B 2 O 3) content of at least 11 wt% and not greater than 17 wt% of the total weight of the bond material.
A method of wireless communication, comprising: receiving, at a first protocol layer of a first communication device, a service data unit, SDU, from a second protocol layer; and starting, multiple timers at different times and in response to receiving the SDU, wherein each of the multiple timers corresponds to a different path for routing a plurality of packet data units, PDUs, generated from the SDU to a second communication device; wherein the plurality of PDUs generated from the SDU include duplicate PDUs, wherein the first communication device is a base station and the second communication device is a user equipment; discarding a given PDU that remains untransmitted at expiration of corresponding timer while retaining the SDU for transmission; receiving, from entities of a third protocol layer, an indication of a successful delivery of the SDU; discarding, by the first protocol layer and after receiving the indication, the SDU; and performing any one of: discarding, by the first protocol layer and after receiving the indication, the plurality of PDUs generated from the SDU; and indicating to the entities of the third protocol layer that the SDU has been discarded, wherein the first protocol layer is a packet data convergence protocol, PDCP, layer, the second protocol layer is an upper layer of the first protocol layer, and the entities of the third protocol layer are radio link control, RLC, entities. receiving, at a first protocol layer of a first communication device, a service data unit, SDU, from a second protocol layer; and starting, multiple timers at different times and in response to receiving the SDU, wherein each of the multiple timers corresponds to a different path for routing a plurality of packet data units, PDUs, generated from the SDU to a second communication device; wherein the plurality of PDUs generated from the SDU include duplicate PDUs, wherein the first communication device is a base station and the second communication device is a user equipment; discarding a given PDU that remains untransmitted at expiration of corresponding timer while retaining the SDU for transmission; receiving, from entities of a third protocol layer, an indication of a successful delivery of the SDU; discarding, by the first protocol layer and after receiving the indication, the SDU; and performing any one of: discarding, by the first protocol layer and after receiving the indication, the plurality of PDUs generated from the SDU; and indicating to the entities of the third protocol layer that the SDU has been discarded, discarding, by the first protocol layer and after receiving the indication, the plurality of PDUs generated from the SDU; and indicating to the entities of the third protocol layer that the SDU has been discarded, wherein the first protocol layer is a packet data convergence protocol, PDCP, layer, the second protocol layer is an upper layer of the first protocol layer, and the entities of the third protocol layer are radio link control, RLC, entities.
Method for making a membrane for indicating a switch button for switching operation comprising the steps of: a) providing a transparent sheet (51, 71, 81); b) forming a graphical layer (72, 82) by image-wise providing a curable ink layer (52, 53, 54, 61, 62, 63, 64, 65, 66) using inkjet printing on a surface of the transparent sheet, wherein the graphical layer has a thickness of at most 35 μm; c) curing the graphical layer; and d) forming a flexible layer (55, 74) by providing an ink layer using a printing technique other than inkjet printing over the graphical layer. a) providing a transparent sheet (51, 71, 81); b) forming a graphical layer (72, 82) by image-wise providing a curable ink layer (52, 53, 54, 61, 62, 63, 64, 65, 66) using inkjet printing on a surface of the transparent sheet, wherein the graphical layer has a thickness of at most 35 μm; c) curing the graphical layer; and d) forming a flexible layer (55, 74) by providing an ink layer using a printing technique other than inkjet printing over the graphical layer.