mhurhangee/ep-ind-claims huggingface dataset:
Water socket for a dispensing device comprising a first water connection element to a water supply pipe, a device body, and a second water connection element fluidically connected with said first water connection element and defining at least one supply passage of the dispensing device, wherein a cartridge seat is obtained in said body that communicates with the first and second water connection element and that houses at least a cartridge (100, 1000), this latter comprising: - a cartridge body, defining a first compartment and a second compartment, said second compartment being separated from said first compartment by a watertight separation septum, an inlet opening being formed in the cartridge body for the entry of a flow of water inside the first compartment, and at least one outlet opening open to the outside for discharging the flow of water from the first compartment; - a current generator housed in the first compartment, said current generator being suitable to be actuated by a flow of water passing through said first compartment from the inlet opening to the outlet opening; - at least an electronic device (11, 1002) housed in said second compartment and suitable to generate a secondary effect perceptible by a user, said electronic device being powered electrically by the current generator, the second compartment being separated from the external environment by a separation element (13, 1004) suitable to allow the transmission of said secondary effect to the exterior; wherein the second water connection element comprises a threaded hollow fitting for connection of a dispensing device in the form of a shower head or bidet shower through a hose; said socket being characterized in that the cartridge (100, 1000) is housed in the cartridge seat in a releasable manner, the inlet opening being formed in a threaded neck of the cartridge body for the releasable connection of the cartridge to the water socket. - a cartridge body, defining a first compartment and a second compartment, said second compartment being separated from said first compartment by a watertight separation septum, an inlet opening being formed in the cartridge body for the entry of a flow of water inside the first compartment, and at least one outlet opening open to the outside for discharging the flow of water from the first compartment; - a current generator housed in the first compartment, said current generator being suitable to be actuated by a flow of water passing through said first compartment from the inlet opening to the outlet opening; - at least an electronic device (11, 1002) housed in said second compartment and suitable to generate a secondary effect perceptible by a user, said electronic device being powered electrically by the current generator, the second compartment being separated from the external environment by a separation element (13, 1004) suitable to allow the transmission of said secondary effect to the exterior;
Vacuum brake booster comprising a casing formed by an end wall housing a piston and supplemented by a cover to delimit two chambers (CH1, CH2) initially placed under vacuum, and of which the chamber is connected to the atmosphere by a set of valves so as, on command, to create a pressure difference applied to the piston pushing the master cylinder via an intermediate piston, - the piston having a diaphragm pressed against its rear face, of which diaphragm the exterior periphery is fixed into the crimping between the end wall (1·1) and the cover and the internal periphery, around the axis of the vacuum brake booster, is fixed to the base of a cylindrical body housing the set of valves that control the pneumatic operation of the vacuum brake booster, - the cylindrical body passing in a sealed manner through the opening equipped with a seal in the end wall, - the cylindrical body bearing an inverted U-shaped clip slipped into two grooves in the cylindrical body and coming into abutment against the return of the cylindrical housing upstream of the housing for the seal, the brake booster comprising - a damping element between the front of the clip and to the rear of the base bearing the piston and the bulge of the diaphragm. - the piston having a diaphragm pressed against its rear face, of which diaphragm the exterior periphery is fixed into the crimping between the end wall (1·1) and the cover and the internal periphery, around the axis of the vacuum brake booster, is fixed to the base of a cylindrical body housing the set of valves that control the pneumatic operation of the vacuum brake booster, - the cylindrical body passing in a sealed manner through the opening equipped with a seal in the end wall, - the cylindrical body bearing an inverted U-shaped clip slipped into two grooves in the cylindrical body and coming into abutment against the return of the cylindrical housing upstream of the housing for the seal, - a damping element between the front of the clip and to the rear of the base bearing the piston and the bulge of the diaphragm.
Energy store with a housing, which surrounds a storage medium having latent heat during a phase transfer, which is provided during operation as intended for solidifying into a solid phase and for melting into a liquid phase, comprising within the housing a first storage region, which is provided at least at times for a solid phase of the storage medium and in which an extractor heat exchanger is arranged, which is provided for extracting heat from the storage medium, wherein the first storage region has a longitudinal extension, which is oriented as a vertical axis in the intended usage state, and the extractor heat exchanger is constructed in layers in the direction of the vertical axis with heat exchanger tubes arranged in the layers, comprising a second storage region within the housing, which is intended for a liquid phase of the storage medium, when a solid phase is present in the first storage region, wherein at least regions of the second storage region are provided as a casing around the first storage region, wherein at least one portion of a regeneration device is arranged in the second storage region, which is provided for supplying heat to the storage medium, characterised in that the regeneration device has at least one first and at least one second passage device (30, 40) for the liquid phase and at least one of the passage devices (30, 40) is arranged in the second storage region, wherein one of the passage devices (40, 30) is provided for introducing a liquid phase into the housing and the other of the passage devices (30, 40) is provided for discharging the liquid phase from the housing, wherein the first and/or the second passage device (30, 40) has a passage section (32, 42) with one or more passage openings inside the housing for the liquid phase, through which the storage medium can enter from the corresponding passage device (30, 40) into the housing and can escape from the housing, wherein the passage section (32, 42) is arranged with its longitudinal extension at least in regions about the vertical axis.
An electricity storage/discharge device comprising: an electrode plate with two or more ends, each end comprising at least one current collecting terminal thereby allowing the electrode plate to collect currents in multi-circuits; an auxiliary electric conductor (100, 1001, 1002)comprising current collecting terminals; and an insulator interposed between the electrode plate and the auxiliary electric conductor which are electrically connected via the current collecting terminals of the electrode plate and the current collecting terminals of the auxiliary conductor, wherein the auxiliary electric conductor connects current collecting terminals (104, 106, 1041, 1042, 1061, 1062, 1081, 1091) of the same polarity that are located at different ends of the electrode plates. an electrode plate with two or more ends, each end comprising at least one current collecting terminal thereby allowing the electrode plate to collect currents in multi-circuits; an auxiliary electric conductor (100, 1001, 1002)comprising current collecting terminals; and an insulator interposed between the electrode plate and the auxiliary electric conductor which are electrically connected via the current collecting terminals of the electrode plate and the current collecting terminals of the auxiliary conductor, wherein the auxiliary electric conductor connects current collecting terminals (104, 106, 1041, 1042, 1061, 1062, 1081, 1091) of the same polarity that are located at different ends of the electrode plates.
A hermetic feedthrough for an implantable medical device, the feedthrough comprising: a) a ferrule defining a ferrule opening, wherein the ferrule is configured to be attachable to an opening in a housing of an implantable medical device; b) an insulator at least partially residing in the ferrule opening where a first gold braze hermetically seals the insulator to the ferrule, wherein at least one insulator passageway extends through the insulator to an insulator first end surface and an insulator second end surface; and c) an electrically conductive terminal pin residing in the at least one insulator passageway where a second gold braze hermetically seals the terminal pin to the insulator; wherein one or both of the first and second brazes has the following braze profile: insulator /titanium and titanium hydride mixture /gold /ferrule or terminal pin, as the case may be; and wherein, in the braze profile for at least one of the first and second brazes, the titanium and titanium hydride mixture includes residual inorganic binders selected from colloidal silica and sodium silicate. a) a ferrule defining a ferrule opening, wherein the ferrule is configured to be attachable to an opening in a housing of an implantable medical device; b) an insulator at least partially residing in the ferrule opening where a first gold braze hermetically seals the insulator to the ferrule, wherein at least one insulator passageway extends through the insulator to an insulator first end surface and an insulator second end surface; and c) an electrically conductive terminal pin residing in the at least one insulator passageway where a second gold braze hermetically seals the terminal pin to the insulator;
A nucleic acid probe set comprising: one fluorescent probe which is formed of an oligonucleotide including (a) a nucleotide labeled with (d) a fluorescent substance, wherein the nucleotide (a) is a 5'-terminal nucleotide of said oligonucleotide, and a binding probe formed of an oligonucleotide having one fluorescent probe binding region, to which the fluorescent probe can hybridize, and a target nucleic acid binding region which can hybridize to a target nucleic acid, wherein the nucleic acid probe set is designed such that, when the fluorescent probe hybridizes to the fluorescent probe binding region and the target nucleic acid hybridizes to the target nucleic acid binding region, fluorescence from the fluorescent substance is quenched by guanine in a nucleic acid that includes the target nucleic acid, wherein said guanine and the fluorescent substance (d) labeled on the nucleotide (a) interact with each other to change a fluorescent character of the fluorescent substance (d), wherein said fluorescent probe binding region of binding probe is located on the 5' -end of the binding probe. one fluorescent probe which is formed of an oligonucleotide including (a) a nucleotide labeled with (d) a fluorescent substance, wherein the nucleotide (a) is a 5'-terminal nucleotide of said oligonucleotide, and a binding probe formed of an oligonucleotide having one fluorescent probe binding region, to which the fluorescent probe can hybridize, and a target nucleic acid binding region which can hybridize to a target nucleic acid,
A crop ramp for use in a combine header, the crop ramp comprising: a flat section for coupling the crop ramp to a cutterbar of the combine header; a curved section extending from the flat section, the curved section configured to facilitate transfer of crop to a belt system of the combine header, wherein the crop is transferred in a first direction defined from the flat section to the curved section; the crop ramp being characterised in that it further comprises a flange extending from the curved section, the flange configured to hover above the belt system of the combine header to prevent dirt from flowing in a second direction which is opposite to the first direction. a flat section for coupling the crop ramp to a cutterbar of the combine header; a curved section extending from the flat section, the curved section configured to facilitate transfer of crop to a belt system of the combine header, wherein the crop is transferred in a first direction defined from the flat section to the curved section; the crop ramp being characterised in that it further comprises a flange extending from the curved section, the flange configured to hover above the belt system of the combine header to prevent dirt from flowing in a second direction which is opposite to the first direction.
A method for selectively filtering 1,2-diolein and 1,3-diolein ions from an olive oil sample, said method comprising: ionizing a mixture of an olive oil sample and a preionization modifier comprising silver using an ion source instructed by a processor; separating ions received from the ion source and affected by a post-ionization modifier based on ion mobility using a differential mobility spectrometry device instructed by the processor; selectively filtering separated 1,2-diolein precursor ions by selecting a first compensation voltage (CoV) for the DMS device using the DMS device instructed by the processor; and selectively filtering separated 1,3-diolein precursor ions by selecting a second CoV for the DMS device using the DMS device instructed by the processor. ionizing a mixture of an olive oil sample and a preionization modifier comprising silver using an ion source instructed by a processor; separating ions received from the ion source and affected by a post-ionization modifier based on ion mobility using a differential mobility spectrometry device instructed by the processor; selectively filtering separated 1,2-diolein precursor ions by selecting a first compensation voltage (CoV) for the DMS device using the DMS device instructed by the processor; and selectively filtering separated 1,3-diolein precursor ions by selecting a second CoV for the DMS device using the DMS device instructed by the processor.
A method for a network access node, the method comprising: determining a mapping of scheduling requests to corresponding one or more logical channels configured for a user equipment; configuring the user equipment with configuration of the mapping of the scheduling requests corresponding to the one or more logical channels configured for the user equipment and configuring the user equipment with configuration of mapping of one or more of a plurality of different lengths of transmission time intervals for an uplink radio resource for data transmission of the one or more logical channels; receiving a scheduling request from the user equipment that is mapped to the one or more logical channels; allocating, based in part on the configuration of mapping of one or more of a plurality of different lengths of transmission time intervals corresponding to the one or more logical channels to which the received scheduling request was mapped, an uplink radio resource to be used by the user equipment such that the transmission time interval of the allocated uplink radio resource has a length corresponding to the shortest length of the longest one or more lengths of the one or more of the plurality of different lengths of transmission time interval(s) configured for the mapped one or more logical channels; and receiving data on the allocated uplink radio resource for the one or more logical channels. determining a mapping of scheduling requests to corresponding one or more logical channels configured for a user equipment; configuring the user equipment with configuration of the mapping of the scheduling requests corresponding to the one or more logical channels configured for the user equipment and configuring the user equipment with configuration of mapping of one or more of a plurality of different lengths of transmission time intervals for an uplink radio resource for data transmission of the one or more logical channels; receiving a scheduling request from the user equipment that is mapped to the one or more logical channels; allocating, based in part on the configuration of mapping of one or more of a plurality of different lengths of transmission time intervals corresponding to the one or more logical channels to which the received scheduling request was mapped, an uplink radio resource to be used by the user equipment such that the transmission time interval of the allocated uplink radio resource has a length corresponding to the shortest length of the longest one or more lengths of the one or more of the plurality of different lengths of transmission time interval(s) configured for the mapped one or more logical channels; and receiving data on the allocated uplink radio resource for the one or more logical channels.
A method for controlling a lifting device for moving a load along a trajectory from a start point to an end point, wherein the load is moved along a first motion axis and along a second motion axis, the start point and the end point of the trajectory as well as the prohibited zones (V i) are established which, during motion of the load are avoided by the load, that from this, a computing unit calculates a geometrical or rounded geometrical or smooth geometrical path (G, G', G"), characterized in that kinematic and geometric limit values of the lifting device are predetermined, from which the computing unit, based on the geometric or rounded geometric or smooth geometric path (G, G', G"), calculates a dynamic or rounded dynamic or smooth dynamic path (D, D', D"), which provides the time information of motion of the load along the geometric or rounded geometric or smooth geometric path (G, G', G"), and that the geometric or rounded geometric or smooth geometric path (G, G', G") and the dynamic or rounded dynamic or smooth dynamic path (D, D', D") are combined for producing the trajectory.
A backlight unit suitable for a display device, said backlight unit comprising: a light wave plate; a light source unit disposed along a lateral face of the light wave plate; an optical sheet disposed on the light wave plate; a barrier substrate disposed under the light wave plate; an optical conversion layer disposed under the barrier substrate; a reflective substrate disposed under the optical conversion layer, wherein the reflective substrate comprises a base member, a reflective layer disposed on the base member and a plurality of first refractive layers (273 to 278) disposed on the reflective layer, and wherein the reflective substrate, the optical conversion layer and the barrier substrate are integrally formed to constitute an optical member configured to reflect light emitted from the light source unit. a light wave plate; a light source unit disposed along a lateral face of the light wave plate; an optical sheet disposed on the light wave plate; a barrier substrate disposed under the light wave plate; an optical conversion layer disposed under the barrier substrate; a reflective substrate disposed under the optical conversion layer, wherein the reflective substrate comprises a base member, a reflective layer disposed on the base member and a plurality of first refractive layers (273 to 278) disposed on the reflective layer, and wherein the reflective substrate, the optical conversion layer and the barrier substrate are integrally formed to constitute an optical member configured to reflect light emitted from the light source unit.
An EUV light source comprising: a plurality of targets; and a system (22"') generating laser pulses, the laser pulses for irradiating targets to produce a burst of EUV light pulses; and an instrument (94") measuring an intensity of a temporal portion of an EUV light pulse within a burst of EUV light pulses and providing a feedback signal indicative thereof; characterized by a shutter responsive to the feedback signal to trim a laser pulse such that only a temporal portion of the laser pulse is delivered to a respective one of the targets, the trimmed laser pulse producing the EUV light pulse generating the measured intensity. a plurality of targets; and a system (22"') generating laser pulses, the laser pulses for irradiating targets to produce a burst of EUV light pulses; and an instrument (94") measuring an intensity of a temporal portion of an EUV light pulse within a burst of EUV light pulses and providing a feedback signal indicative thereof; characterized by a shutter responsive to the feedback signal to trim a laser pulse such that only a temporal portion of the laser pulse is delivered to a respective one of the targets, the trimmed laser pulse producing the EUV light pulse generating the measured intensity.
A method for making a group III-nitride field effect device comprising the steps of • placing a substrate in a reaction chamber; • depositing a first active layer; • depositing a second active layer having a higher bandgap when compared to said first active layer, thereby forming a two-dimensional electron gas layer at or near the interface between said first active layer and said second active layer; • depositing on said second active layer a first passivation layer; • depositing directly on said first passivation layer a source contact; • depositing directly on said first passivation layer a drain contact; • performing a first cleaning step on at least a first part of said first passivation layer, said first part of said first passivation layer being the gate cleaning region; • forming a gate contact, said gate contact fully included within the gate cleaning region; • depositing a second passivation layer; characterized in that said first cleaning step is a removal step etching partially in said first passivation layer, leaving the gate cleaning region with a lower thickness than other parts of the first passivation layer and such that some material of said first passivation layer remains at the gate cleaning region. • placing a substrate in a reaction chamber; • depositing a first active layer; • depositing a second active layer having a higher bandgap when compared to said first active layer, thereby forming a two-dimensional electron gas layer at or near the interface between said first active layer and said second active layer; • depositing on said second active layer a first passivation layer; • depositing directly on said first passivation layer a source contact; • depositing directly on said first passivation layer a drain contact; • performing a first cleaning step on at least a first part of said first passivation layer, said first part of said first passivation layer being the gate cleaning region; • forming a gate contact, said gate contact fully included within the gate cleaning region; • depositing a second passivation layer; characterized in that said first cleaning step is a removal step etching partially in said first passivation layer, leaving the gate cleaning region with a lower thickness than other parts of the first passivation layer and such that some material of said first passivation layer remains at the gate cleaning region.