mhurhangee/patent-ind-claim-en huggingface dataset:
A rotary pump, preferably a vacuum pump, featuring: a delivery space comprising an inlet on a low-pressure side and an outlet on a high-pressure side of the pump ; a rotor which is arranged in the delivery space and delivers a fluid from the inlet into the delivery space to the outlet from the delivery space ; at least one housing part which delineates the delivery space at least axially; a sealing element ; and a drive shaft which is connected in drive terms to the rotor , wherein the rotor comprises: a delivery element support featuring at least one rotor slot ; and at least one delivery element which is axially and radially guided in the rotor slot and which sub-divides the delivery space into at least two delivery cells, the sealing element is formed as an axial extension of the delivery element support , which extends axially out of the delivery space into the housing part , wherein the sealing element and the housing part form an axial gap (G A ) together, the at least one sealing element is connected, secured against shifting and rotating, to the drive shaft and the delivery element support , and the sealing element exhibits an outer diameter which is larger than or equal to an outer diameter of the delivery element support , characterised in that the sealing element forms a radial sealing gap (Gs) with the housing part , and the axial gap (G A ) is larger than the radial sealing gap (Gs). a delivery space comprising an inlet on a low-pressure side and an outlet on a high-pressure side of the pump ; a rotor which is arranged in the delivery space and delivers a fluid from the inlet into the delivery space to the outlet from the delivery space ; at least one housing part which delineates the delivery space at least axially; a sealing element ; and a drive shaft which is connected in drive terms to the rotor , wherein the rotor comprises: a delivery element support featuring at least one rotor slot ; and at least one delivery element which is axially and radially guided in the rotor slot and which sub-divides the delivery space into at least two delivery cells, the sealing element is formed as an axial extension of the delivery element support , which extends axially out of the delivery space into the housing part , wherein the sealing element and the housing part form an axial gap (G A ) together, the at least one sealing element is connected, secured against shifting and rotating, to the drive shaft and the delivery element support , and the sealing element exhibits an outer diameter which is larger than or equal to an outer diameter of the delivery element support , characterised in that the sealing element forms a radial sealing gap (Gs) with the housing part , and the axial gap (G A ) is larger than the radial sealing gap (Gs).
An external sensor nozzle adapter for an injection molding system comprising: a melt flow inlet attachable to a barrel end cap; a melt flow outlet attachable to a nozzle body; a melt flow conduit extending between the melt flow inlet and the melt flow outlet , the melt flow conduit having an internal melt flow conduit wall and an external melt flow conduit wall ; an aperture for an external sensor on the external melt flow conduit wall , the aperture having a bottom that is at least a minimum distance from the internal melt flow conduit wall ; and an external sensor in the aperture, the external sensor being a strain gauge pin; characterized in that the external sensor nozzle adapter includes an alternative material insert surrounding the aperture , the alternative material insert made from a material that amplifies the strain experienced by the external sensor nozzle adapter. a melt flow inlet attachable to a barrel end cap; a melt flow outlet attachable to a nozzle body; a melt flow conduit extending between the melt flow inlet and the melt flow outlet , the melt flow conduit having an internal melt flow conduit wall and an external melt flow conduit wall ; an aperture for an external sensor on the external melt flow conduit wall , the aperture having a bottom that is at least a minimum distance from the internal melt flow conduit wall ; and an external sensor in the aperture, the external sensor being a strain gauge pin; characterized in that the external sensor nozzle adapter includes an alternative material insert surrounding the aperture , the alternative material insert made from a material that amplifies the strain experienced by the external sensor nozzle adapter.
A liquid droplet ejecting device comprising: multiple pressure chambers communicating with multiple nozzles , to contain liquid; a vibration plate , to constitute elastic walls of the pressure chambers , disposed extending along the pressure chambers ; multiple pressure generating elements disposed facing the multiple chambers respectively via the vibration plate ; a drive waveform generator configured to generate drive waveform data that indicates a shape of a drive waveform for driving the multiple pressure generating elements for printing an image; a residual vibration detector configured to detect a residual vibration waveform occurring within the pressure chamber after the pressure generating elements are driven; and a controller configured to determine the necessity of liquid-state recovery ejection for discharging thickened liquid, based on the detected residual vibration, and to cause the liquid-state recovery ejection to be performed upon determining that liquid-state recovery ejection is needed; characterized in that : the controller is further configured to prepare, in advance, a plurality of the drive waveform data for the liquid-state recovery rejection corresponding to the degrees of ink viscosity; the necessity of the liquid-state recovery ejection is determined for each nozzle , drive waveform data are selected from the plurality of the drive waveform data based on an output of the residual vibration detector , the drive waveform data being selected for the nozzle for which it is determined that the liquid-state recovery ejection is needed, and the pressure generating elements are driven based on the selected drive waveform data to perform the liquid-state recovery ejection. the controller is further configured to prepare, in advance, a plurality of the drive waveform data for the liquid-state recovery rejection corresponding to the degrees of ink viscosity; the necessity of the liquid-state recovery ejection is determined for each nozzle , drive waveform data are selected from the plurality of the drive waveform data based on an output of the residual vibration detector , the drive waveform data being selected for the nozzle for which it is determined that the liquid-state recovery ejection is needed, and the pressure generating elements are driven based on the selected drive waveform data to perform the liquid-state recovery ejection.
A filament container adapted to house a spool of filament for an additive manufacturing machine comprising: a base and a lid , wherein the base and the lid define an inner volume of the filament container , the lid rotatably attached to the base , wherein the lid is moveable between a closed position, wherein the inner volume of the filament container is substantially sealed, and an open position, wherein the inner volume of the filament container is accessible for insertion or removal of a spool of filament; and a first horizontal shaft and a second horizontal shaft supported rotatably within the inner volume of the filament container , the first and second horizontal shafts parallel to and spaced from one another a distance , and each of the first and second horizontal shafts rotatable about a respective longitudinal axis ; and wherein the first and second horizontal shafts are adapted to support the spool of filament vertically within the inner volume and to allow the spool of filament to freely rotate about a horizontal axis that is parallel to and spaced from the longitudinal axis of each of the first and second horizontal shafts as filament is pulled from the spool and out of the filament container . a base and a lid , wherein the base and the lid define an inner volume of the filament container , the lid rotatably attached to the base , wherein the lid is moveable between a closed position, wherein the inner volume of the filament container is substantially sealed, and an open position, wherein the inner volume of the filament container is accessible for insertion or removal of a spool of filament; and a first horizontal shaft and a second horizontal shaft supported rotatably within the inner volume of the filament container , the first and second horizontal shafts parallel to and spaced from one another a distance , and each of the first and second horizontal shafts rotatable about a respective longitudinal axis ; and wherein the first and second horizontal shafts are adapted to support the spool of filament vertically within the inner volume and to allow the spool of filament to freely rotate about a horizontal axis that is parallel to and spaced from the longitudinal axis of each of the first and second horizontal shafts as filament is pulled from the spool and out of the filament container .
A contact pin connector (100; 101) which is configured as a micro quadlock system connector, having - a housing which has an at least partially open plug side having a plug-in opening , and - a plurality of contact pins which are configured and arranged on the housing such that they protrude from the housing for contacting and soldering to a printed circuit board, characterized in that - the contact pins are configured such that the contact pin connector (100; 101) can be fastened to the printed circuit board by means of surface-mounting technology and/or by means of through-hole reflow technology, and - the housing is configured at least partially from liquid-crystal polymer and/or from semi-aromatic polyamides. - a housing which has an at least partially open plug side having a plug-in opening , and - a plurality of contact pins which are configured and arranged on the housing such that they protrude from the housing for contacting and soldering to a printed circuit board, - the contact pins are configured such that the contact pin connector (100; 101) can be fastened to the printed circuit board by means of surface-mounting technology and/or by means of through-hole reflow technology, and - the housing is configured at least partially from liquid-crystal polymer and/or from semi-aromatic polyamides.
Sterile packaging unit with a sterile-packaged medical product, in particular a filter module, comprising a primary packaging with the sterile-packaged and hermetically sealed medical product inside it, a plurality of nestable trays on top of each other, each with a plurality of inserts for each of the medical products packaged in the primary packaging , and characterized in that the sterile packaging unit comprises at least one sleeve which wraps around the plurality of trays with the primary-packaged medical products contained in them.
A connection terminal comprising: a movable contact , which is adapted to project outside from a contact hole of a housing such that the movable contact can be pressed; at least two curved portions wherein the second curved portion connected to the first curved portion through a connecting portion is placed closest to the movable contact , wherein each curved portion being pushable and widenable by a load applied to the movable contact ; a base portion of the first curved portion which is located farthest from the movable contact ; and a press-fitting and fixing portion formed at the base portion for the connection with the housing , characterized in that the connecting portion has a spring constant greater than a spring constant of each of the first and second curved portions . a movable contact , which is adapted to project outside from a contact hole of a housing such that the movable contact can be pressed; at least two curved portions wherein the second curved portion connected to the first curved portion through a connecting portion is placed closest to the movable contact , wherein each curved portion being pushable and widenable by a load applied to the movable contact ; a base portion of the first curved portion which is located farthest from the movable contact ; and a press-fitting and fixing portion formed at the base portion for the connection with the housing , characterized in that the connecting portion has a spring constant greater than a spring constant of each of the first and second curved portions .
A method for sending by occupying an unlicensed carrier, comprising: occupying (S101), by an access point of a first wireless technology, an unlicensed carrier according to a continuous occupation mode and sending (S102) data and/or signals on the unlicensed carrier; characterized in that the step of occupying, by the access point of the first wireless technology, the unlicensed carrier according to the continuous occupation mode and sending the data and/or signals on the unlicensed carrier comprises: setting one or more sub-occupation periods and configuring one monitoring interval after each sub-occupation period; and sending data and/or signals on the unlicensed carrier occupied within the one or more sub-occupation periods, and stopping sending the data and/or signals within the monitoring interval; wherein the monitoring interval is configured to be a time length for contending the unlicensed carrier by access points of the first wireless technology and access points of a second wireless technology, different from the first wireless technology; and in which existing relationships of time frequency synchronization and Channel State Information, CSI, between the access point of the first wireless technology and a User Equipment, UE, is maintained. occupying (S101), by an access point of a first wireless technology, an unlicensed carrier according to a continuous occupation mode and sending (S102) data and/or signals on the unlicensed carrier; characterized in that the step of occupying, by the access point of the first wireless technology, the unlicensed carrier according to the continuous occupation mode and sending the data and/or signals on the unlicensed carrier comprises: setting one or more sub-occupation periods and configuring one monitoring interval after each sub-occupation period; and sending data and/or signals on the unlicensed carrier occupied within the one or more sub-occupation periods, and stopping sending the data and/or signals within the monitoring interval; setting one or more sub-occupation periods and configuring one monitoring interval after each sub-occupation period; and sending data and/or signals on the unlicensed carrier occupied within the one or more sub-occupation periods, and stopping sending the data and/or signals within the monitoring interval; wherein the monitoring interval is configured to be a time length for contending the unlicensed carrier by access points of the first wireless technology and access points of a second wireless technology, different from the first wireless technology; and in which existing relationships of time frequency synchronization and Channel State Information, CSI, between the access point of the first wireless technology and a User Equipment, UE, is maintained.
Cooking appliance apparatus, in particular oven apparatus, with at least one first heating element , with at least one second heating element and with a control unit , which is provided to operate the first heating element and the second heating element jointly to heat a cooking chamber in at least one operating state, and with at least one power distributor unit , which is provided to divide a total power into at least one first output power and at least one second output power in the operating state and to supply the first output power to the first heating element and the second output power to the second heating element , characterised by a number of converter units , which are arranged downstream of the power distributor unit and are provided to adjust one of the output powers of the power distributor unit to the type of heating elements and to supply the same to a respective heating element , wherein the heating elements are of a different type.
An input unit comprising: a display section configured to display a setting screen for changing a setting of a patient monitor connected to the input unit ; an input section configured to receive an input of setting information indicative of an instruction for changing the setting of the patient monitor; and a communication section configured to transmit a biological signal of a patient (P), acquired from a sensor attached to the patient (P), to the patient monitor to allow the patient monitor to display vital sign information of the patient (P) and also to transmit the setting information that is input from the input section to the patient monitor when an instruction for transmitting setting information due to an operation on the display and input section is issued; wherein the communication section is configured to receive a current setting status from the patient monitor , and wherein the display section is configured to display the setting screen for the patient monitor , the setting screen being based on the received setting status. a display section configured to display a setting screen for changing a setting of a patient monitor connected to the input unit ; an input section configured to receive an input of setting information indicative of an instruction for changing the setting of the patient monitor; and a communication section configured to transmit a biological signal of a patient (P), acquired from a sensor attached to the patient (P), to the patient monitor to allow the patient monitor to display vital sign information of the patient (P) and also to transmit the setting information that is input from the input section to the patient monitor when an instruction for transmitting setting information due to an operation on the display and input section is issued; wherein the communication section is configured to receive a current setting status from the patient monitor , and wherein the display section is configured to display the setting screen for the patient monitor , the setting screen being based on the received setting status.
Filtration device for an air purification apparatus comprising a first filter cartridge structure containing a conventional absorbent or adsorbent material chosen from activated carbon or zeolite, characterized in that the device comprises a separate second filter cartridge structure ensuring the holding of a filter media consisting of a specific porous adsorbent material, said material is - in the form of cylindrical granules of elongated shape having a ratio L/D>1, wherein L corresponds to the length of a granule and D corresponds to the diameter of a granule, or in the form of granules in crushed form, the crushed form leading to particles of size of about 0.12 to 8 mm, - functionalized with at least one probe molecule carrying a reactive function capable of reacting with an aldehyde function, so as to allow chemical pollutants of the aldehyde type to be trapped, the probe molecule is chosen from the enaminones and the corresponding β-diketone/amine pairs, imines, amines, imides and hydrazines, or the salts derived from these compounds, - manufactured by a sol-gel process for incorporation into a nanoporous structure of metal oxides of said probe molecules. - in the form of cylindrical granules of elongated shape having a ratio L/D>1, wherein L corresponds to the length of a granule and D corresponds to the diameter of a granule, or in the form of granules in crushed form, the crushed form leading to particles of size of about 0.12 to 8 mm, - functionalized with at least one probe molecule carrying a reactive function capable of reacting with an aldehyde function, so as to allow chemical pollutants of the aldehyde type to be trapped, the probe molecule is chosen from the enaminones and the corresponding β-diketone/amine pairs, imines, amines, imides and hydrazines, or the salts derived from these compounds, - manufactured by a sol-gel process for incorporation into a nanoporous structure of metal oxides of said probe molecules.
A nanofluid comprising: a base fluid; a nanoparticle component; and a gelling agent provided in an amount effective to cause the nanofluid to change from a liquid state to a gelled state at a temperature below 20 °C, the gelled state helping to maintain the nanoparticle component suspended throughout the base fluid; wherein the nanoparticle component is selected from the group consisting of diamond nanoparticles, MoS 2 nanoparticles, WS 2 , and combinations thereof; wherein the base fluid is a non-aqueous fluid having a moisture content less than 20%; and wherein the gelling agent is a gelling surfactant provided in a range of 0.05 to 2.0 wt. %. a base fluid; a nanoparticle component; and a gelling agent provided in an amount effective to cause the nanofluid to change from a liquid state to a gelled state at a temperature below 20 °C, the gelled state helping to maintain the nanoparticle component suspended throughout the base fluid;
Stackable system container , which has a lower container part and a cover , having at least two coupling hooks arranged on opposite side walls of the lower container part for connection to corresponding coupling recesses of a further, similar system container , wherein the coupling hooks can be moved between a coupling position, in which the coupling hooks are engaged with the coupling recesses , and a release position, in which the coupling hooks are disengaged from the coupling recesses , and wherein the coupling recesses are arranged within a wall protruding beyond the upper side of the cover , wherein each coupling hook and each associated coupling recess are designed to have two parts, wherein both parts of the coupling hook can be actuated via a common actuating surface , and wherein a guide projection which is immovable with respect to the lower container part is arranged between both parts of each coupling hook for positioning engagement in a guide shaft between the coupling recesses , characterised in that the guide shafts are opened towards the inside and have only three walls so that lateral introduction of the guide projection into the guide shaft is possible, wherein the system container may be placed only loosely on the further system container and then can be displaced so far that the guide projection reaches into the guide shaft of the further system container so that after placing the system container on the further system container in horizontal direction, can be introduced into the corresponding coupling recess of the further system container , and after that the opposite coupling hook can be pushed vertically into the corresponding coupling recess of the further system container .