mhurhangee/patent-ind-claim-en huggingface dataset:
A filtration system for use with a cell removal system , comprising: a loading member configured to receive a plurality of filtration members , each of the plurality of filtration members including a filtration inlet , a filtration outlet , and a filtration flow path that extends from the filtration inlet to the filtration outlet; at least one actuator configured to move the plurality of filtration members, sequentially, from a non-active position in which a respective one of the plurality of filtration members is not in fluid communication with a sample flow path of the cell removal system, to an active position in which a respective filtration member is in fluid communication with the sample flow path, and to a discarded position in which the respective filtration member has been removed from fluid communication with the sample flow path.
Air-conditioning unit , in particular for a motor vehicle, having a heat exchanger, a pipe connected to this heat exchanger and a protective member , this exchanger being for example an evaporator of the air-conditioning unit, this protective member having a wall arranged to at least partially surround the pipe to be protected, this protective member forming a portion of wall of an air channel inside the air-conditioning unit, the air-conditioning unit having an upper housing element and a lower housing element that are arranged to be joined together, and thus to define, overall, a housing of the unit, characterized in that the protective member is fastened to the upper housing element, and held sandwiched between the upper housing element and the lower housing element.
A calcium-free lead alloy, consisting of: 0.003 % by weight - 0.025 % by weight at least two rare earth metals 0.0 % by weight - 2.0 % by weight Sn 0.0 % by weight - 0.035 % by weight Ag 0.0 % by weight - 0.07 % by weight Ba 0.0 % by weight - 0.03 % by weight Bi 0.0 % by weight - 0.012 % by weight Al the rest being Pb; wherein the sum of all parts by weight of the alloying components in the lead alloy amounts to 100 % by weight, characterized in that at least one lanthanoid and yttrium are contained as rare earth metals in the lead alloy.
A system, comprising: a first conductive plate configured at least to receive an input signal; a second conductive plate configured at least to output an output signal; and a memristor material positioned between the first conductive plate and the second conductive plate; characterized by further comprising a device , the device comprising the first conductive plate , the second conductive plate , the memristor material, a third conductive plate, a dielectric material , a first terminal electrically coupled to the first conductive plate , a second terminal electrically coupled to the second conductive plate , and a third terminal electrically coupled to the third conductive plate , wherein the dielectric material is positioned between the second conductive plate and the third conductive plate , wherein the device has memristor functionality and capacitor functionality, wherein the device is a bandpass filter. a first conductive plate configured at least to receive an input signal; a second conductive plate configured at least to output an output signal; and a memristor material positioned between the first conductive plate and the second conductive plate; characterized by further comprising a device , the device comprising the first conductive plate , the second conductive plate , the memristor material, a third conductive plate, a dielectric material , a first terminal electrically coupled to the first conductive plate , a second terminal electrically coupled to the second conductive plate , and a third terminal electrically coupled to the third conductive plate , wherein the dielectric material is positioned between the second conductive plate and the third conductive plate , wherein the device has memristor functionality and capacitor functionality, wherein the device is a bandpass filter.
An energy storage device casing for an energy storage device, comprising: a) a rigidified molded structural shell defining a void area suitable for containing an energy storage device, said structural shell having an outer surface and an inner surface ; and b) an inner lining impervious to oxygen and humidity, characterized in that said inner lining includes a laminate comprising a layer of synthetic material and a layer of metallic material joined onto said inner surface of said rigidified molded structural shell. a) a rigidified molded structural shell defining a void area suitable for containing an energy storage device, said structural shell having an outer surface and an inner surface ; and b) an inner lining impervious to oxygen and humidity, characterized in that said inner lining includes a laminate comprising a layer of synthetic material and a layer of metallic material joined onto said inner surface of said rigidified molded structural shell.
Compressed air nail gun comprising: • a working piston which is connected to a driving ram for driving in a fastening means and to which compressed air is applied when a drive-in process is triggered, • a triggering valve which has a valve sleeve and a valve pin guided in the valve sleeve , • a control line which is filled with air or emptied of air by the triggering valve in order to trigger a drive-in process when the valve pin is moved into an actuated position relative to the valve sleeve , • a trigger , a contact sensor and a switching surface coupled to the trigger and/or to the contact sensor for actuating the valve pin , • an outer sleeve in which the valve sleeve is guided, wherein the valve sleeve is movable relative to the outer sleeve between a triggering position and a blocking position in accordance with a pressure in a safety control chamber , wherein • the switching surface is coupled to the trigger and/or to the contact sensor in such a way that the switching surface is always in a permanently specified switching position relative to the outer sleeve when both the trigger and the contact sensor are actuated, wherein • the switching surface is arranged in the switching position in such a way that the switching surface moves the valve pin into the actuated position when the valve sleeve is in the triggering position, and characterised in that the switching surface does not move the valve pin into the actuated position when the valve sleeve is in the blocking position. • a working piston which is connected to a driving ram for driving in a fastening means and to which compressed air is applied when a drive-in process is triggered, • a triggering valve which has a valve sleeve and a valve pin guided in the valve sleeve , • a control line which is filled with air or emptied of air by the triggering valve in order to trigger a drive-in process when the valve pin is moved into an actuated position relative to the valve sleeve , • a trigger , a contact sensor and a switching surface coupled to the trigger and/or to the contact sensor for actuating the valve pin , • an outer sleeve in which the valve sleeve is guided, wherein the valve sleeve is movable relative to the outer sleeve between a triggering position and a blocking position in accordance with a pressure in a safety control chamber , wherein • the switching surface is coupled to the trigger and/or to the contact sensor in such a way that the switching surface is always in a permanently specified switching position relative to the outer sleeve when both the trigger and the contact sensor are actuated, wherein • the switching surface is arranged in the switching position in such a way that the switching surface moves the valve pin into the actuated position when the valve sleeve is in the triggering position, and
A filter for the filtration of a liquid, comprising or consisting of a support element made of a porous ceramic material and a separating membrane layer for the filtration of said liquid, said support element being covered on the portion of its surface in contact with the liquid to be filtered by said separating membrane layer, said separating layer being made from a material comprising at least 70% by weight of silicon carbide SiC relative to the total weight of all of the mineral compounds present in said separating layer, said filter being characterized in that the ratio between the molar content of SiC in beta form and the molar content of SiC in alpha form of the separating layer is greater than 0.5, the nature and the respective proportions of the silicon carbide forms being determined by x-ray diffraction and Rietveld analysis.
A unit for blow-moulding of bottles intended for hot filling from PET preforms, comprising a hollow stretching rod open at the top end, the rod featuring openings in its side surface, and a pipe segment through which the said stretching rod runs, so that there is a duct for compressed air formed between the stretching rod and the inner side of the pipe segment, the inner side of the pipe segment features at least one conical surface convergent towards the bottom, characterised in that the inner wall of the pipe segment features at least one conical surface convergent towards the top.
Device for sealing at least one door leaf for a rail vehicle , wherein the device has at least one sliding element which is designed to move the door leaf in a z direction of the rail vehicle in the region of a closed position, in order to press a sealing element of the door leaf against a counter-sealing element of a portal of the rail vehicle , wherein the sliding element is also designed to move the door leaf in an x direction of the rail vehicle , in order to move the door leaf between the closed position and an open position, wherein the sliding element is embodied as a passive component which is designed to carry out a movement of the door leaf in the z direction using a movement of the door leaf in the x direction, and wherein the sliding element has a pivoting lever (112; 1350) which can rotate about a pivoting point and has at least one guide arm (206; 1351, 1352), characterised in that the pivoting lever has a first guide arm and a second guide arm , wherein the first guide arm has a first attachment point , on which a first supporting roller unit for guiding the first guide arm along a guide path is arranged, and the second guide arm has a second attachment point , on which a second supporting roller unit for guiding the second guide arm along the guide path is arranged, and wherein the pivoting point can be coupled to the door leaf and is arranged between the first attachment point and the second attachment point .
A method performed by a user equipment (UE) , the method comprising: selecting a first beam for a first frequency band ; selecting a second beam for a second frequency band ; receiving scheduling information (SI) for scheduling at least one of an uplink (UL) transmission from the UE and a downlink (DL) transmission to the UE , the SI comprising frequency information identifying a frequency band that the UE is scheduled in for the at least one of an UL transmission from the UE and a DL transmission to the UE; selecting a beam from a set of beams including the first and second beams, wherein the selection is based on the identified frequency band; and performing the at least one of the UL transmission from the UE and the DL transmission to the UE using the beam selected from the set of beams. selecting a first beam for a first frequency band ; selecting a second beam for a second frequency band ; receiving scheduling information (SI) for scheduling at least one of an uplink (UL) transmission from the UE and a downlink (DL) transmission to the UE , the SI comprising frequency information identifying a frequency band that the UE is scheduled in for the at least one of an UL transmission from the UE and a DL transmission to the UE; selecting a beam from a set of beams including the first and second beams, wherein the selection is based on the identified frequency band; and performing the at least one of the UL transmission from the UE and the DL transmission to the UE using the beam selected from the set of beams.
A method of characterizing a semiconductor structure, the method comprising: providing a semiconductor structure comprising a semiconductor and a high-k dielectric layer formed over the semiconductor, wherein the high-k dielectric layer has electron traps formed therein; at least partially transmitting an incident light having an incident energy through the high-k dielectric layer and at least partially absorbing the incident light in the semiconductor, wherein the incident energy is sufficient to cause electrons to be transported from the semiconductor to the electron traps such that some of the electrons are temporarily trapped by the electron traps, and wherein the incident energy is sufficient for the electron traps filled with temporarily trapped electrons to cause generation of light having an energy different from the incident energy resulting from nonlinear optical effects; obtaining a nonlinear spectrum resulting from the light having the energy different from the incident energy, energy, the spectrum being a measurement of intensity over time, the nonlinear spectrum having a first region and a second region subsequent to the first region, wherein an intensity in the first region increases at a faster rate compared to the second region; determining from the spectrum a first time constant from the first region and optionally a second time constant from the second region; characterized in that the method further comprises determining an electron trap density in the high-k dielectric layer based on the first time constant or both of the first time constant and the second time constant. providing a semiconductor structure comprising a semiconductor and a high-k dielectric layer formed over the semiconductor, wherein the high-k dielectric layer has electron traps formed therein; at least partially transmitting an incident light having an incident energy through the high-k dielectric layer and at least partially absorbing the incident light in the semiconductor, wherein the incident energy is sufficient to cause electrons to be transported from the semiconductor to the electron traps such that some of the electrons are temporarily trapped by the electron traps, and wherein the incident energy is sufficient for the electron traps filled with temporarily trapped electrons to cause generation of light having an energy different from the incident energy resulting from nonlinear optical effects; obtaining a nonlinear spectrum resulting from the light having the energy different from the incident energy, energy, the spectrum being a measurement of intensity over time, the nonlinear spectrum having a first region and a second region subsequent to the first region, wherein an intensity in the first region increases at a faster rate compared to the second region; determining from the spectrum a first time constant from the first region and optionally a second time constant from the second region; characterized in that the method further comprises determining an electron trap density in the high-k dielectric layer based on the first time constant or both of the first time constant and the second time constant.
A hydrogen refueling system for filing a vessel of a vehicle with hydrogen, the hydrogen refueling system comprising: - a hydrogen center enclosure physically separated from a dispenser , wherein the center enclosure is fluidly connected to the dispenser by a supply pipe , - a cooling system at least partly comprised by the center enclosure connected to a cooling circuit comprising a forward path and a return path , and - a controller , wherein at least part of the cooling circuit is thermally connected to the supply pipe and facilitates circulation of a supply pipe cooling media in the forward and return paths from the cooling system of the center enclosure towards the dispenser and back to the cooling system of the center enclosure , wherein the controller is configured for controlling the cooling system and thereby the temperature of the supply pipe , wherein the supply pipe cooling media is a refrigerant and the hydrogen refueling system is configured such that when the refrigerant entering the forward path it is in its liquid state and in the return path changing stated towards its gaseous state. - a hydrogen center enclosure physically separated from a dispenser , wherein the center enclosure is fluidly connected to the dispenser by a supply pipe , - a cooling system at least partly comprised by the center enclosure connected to a cooling circuit comprising a forward path and a return path , and - a controller ,
Securing device for a windscreen wiper mounting assembly , comprising a grommet comprising a through orifice and a first expandable end disposed in one end of the through orifice ; characterized by further comprising a middle connector comprising a first fixing means and an elongated segment being hollow and comprising a second expandable end adapted to be inserted into the through orifice ; and a locking member comprising a second fixing means and a pin adapted to be inserted into the elongated segment ; wherein the securing device is adapted to present a first configuration in which the pin is partly inserted into the elongated segment which is inserted into the first expandable end and the second fixing means engages the first fixing means so as to fix the locking member to the middle connector , and a second configuration in which the pin is pushed through the second expandable end which is inserted into the first expandable end so as to deform the first and second expandable ends (221, 243; 343). a grommet comprising a through orifice and a first expandable end disposed in one end of the through orifice ; characterized by further comprising a middle connector comprising a first fixing means and an elongated segment being hollow and comprising a second expandable end adapted to be inserted into the through orifice ; and a locking member comprising a second fixing means and a pin adapted to be inserted into the elongated segment ; a first configuration in which the pin is partly inserted into the elongated segment which is inserted into the first expandable end and the second fixing means engages the first fixing means so as to fix the locking member to the middle connector , and a second configuration in which the pin is pushed through the second expandable end which is inserted into the first expandable end so as to deform the first and second expandable ends (221, 243; 343).
An automotive headrest, comprising a support and a headrest body disposed on the support , characterized in that , the headrest body has a first cavity and a second cavity independent of one another, the first cavity and the second cavity are provided with a speaker unit respectively, and the two speaker units are located on left and right sides of the headrest body respectively; wherein the headrest body comprises a front cover board , a left side portion of the front cover board has a left mounting portion , and a right side portion of the front cover board has a right mounting portion , each of the speaker units respectively comprises a speaker , and the left mounting portion is provided with a left mounting hole communicating with the first cavity, the right mounting portion is provided with a right mounting hole communicating with the second cavity, and the speaker on the left side is mounted in the left mounting hole , and the speaker on the right side is mounted in the right mounting hole ; the left portion of the front cover board gradually extends forward from a middle part of the front cover board to a left edge thereof, and the right portion of the front cover board gradually extends forward from a middle part of the front cover board to a right edge thereof. wherein the headrest body comprises a front cover board , a left side portion of the front cover board has a left mounting portion , and a right side portion of the front cover board has a right mounting portion , each of the speaker units respectively comprises a speaker , and the left mounting portion is provided with a left mounting hole communicating with the first cavity, the right mounting portion is provided with a right mounting hole communicating with the second cavity, and the speaker on the left side is mounted in the left mounting hole , and the speaker on the right side is mounted in the right mounting hole ; the left portion of the front cover board gradually extends forward from a middle part of the front cover board to a left edge thereof, and the right portion of the front cover board gradually extends forward from a middle part of the front cover board to a right edge thereof.
A holding mechanism comprising: a holding part for clamping a held object (5; and a base part for supporting the holding part in a freely rotatable manner; wherein the holding part includes a holding plate part configured to be located at a back side of the held object , a fixed clamping part disposed on one side of the holding plate part , and a movable clamping part biased so as to approach the fixed clamping part ; and wherein the movable clamping part is, in a non-clamping state, at a smaller distance from a rotation center (O1) of the holding part than a distance from the rotation center to the fixed clamping part and movable farther away from the rotation center (O1) than the fixed clamping part . a holding part for clamping a held object (5; and a base part for supporting the holding part in a freely rotatable manner; wherein the holding part includes a holding plate part configured to be located at a back side of the held object , a fixed clamping part disposed on one side of the holding plate part , and a movable clamping part biased so as to approach the fixed clamping part ; and wherein the movable clamping part is, in a non-clamping state, at a smaller distance from a rotation center (O1) of the holding part than a distance from the rotation center to the fixed clamping part and movable farther away from the rotation center (O1) than the fixed clamping part .
A damper, wherein the damper comprises a housing forming an accommodating cavity and a vibration energy dissipation unit located in the housing ; the accommodating cavity comprises a liquid storage cavity and a mass body movable cavity located at an upper part of the liquid storage cavity ; the vibration energy dissipation unit comprises a damping liquid contained in the liquid storage cavity and a plurality of mass bodies located in the mass body movable cavity ; the plurality of mass body floats on a liquid surface of the damping liquid , characterized in that , a plurality of tooth-shaped protrusions are formed on the outer surface of each of the mass bodies . the accommodating cavity comprises a liquid storage cavity and a mass body movable cavity located at an upper part of the liquid storage cavity ; the vibration energy dissipation unit comprises a damping liquid contained in the liquid storage cavity and a plurality of mass bodies located in the mass body movable cavity ; the plurality of mass body floats on a liquid surface of the damping liquid , characterized in that , a plurality of tooth-shaped protrusions are formed on the outer surface of each of the mass bodies .