mhurhangee/ep-ind-claims huggingface dataset:
Assembly formed by a cooking container comprising at least one outwardly curved bracket as well as a removable handle intended to cooperate with said bracket, said bracket comprising a free end and a through-opening provided with a front wall, said removable handle extending along a longitudinal axis and comprising at one end a lip ending with a double cambering able to be inserted into said opening, said lip being provided with a lower bearing wall intended to cooperate with an upper bearing face of the bracket, the bracket comprising a housing (40a, 40b) arranged near the free end and the lip comprising a boss (50a, 50b) arranged on the lower bearing surface and which extends along a horizontal main direction, perpendicular to the longitudinal axis, characterized in that the boss (50a, 50b) and the housing (40a, 40b) are sized to bring the double cambering into contact with the front wall of the opening when the handle is assembled on the bracket.
A method for providing a restricted service, wherein the method comprises: receiving, by a policy control function, PCF, an identifier of a terminal and indication information from a network data analytics function, NWDAF, the indication information indicating an exception type of the terminal; and sending, by the PCF, the identifier of the terminal and a first restricted service policy corresponding to the exception type for the terminal to a session management function, SMF, according to the indication information, wherein the first restricted service policy is used to provide a restricted service for the terminal. receiving, by a policy control function, PCF, an identifier of a terminal and indication information from a network data analytics function, NWDAF, the indication information indicating an exception type of the terminal; and sending, by the PCF, the identifier of the terminal and a first restricted service policy corresponding to the exception type for the terminal to a session management function, SMF, according to the indication information, wherein the first restricted service policy is used to provide a restricted service for the terminal.
A forming assembly (10a, 10b) for forming a plurality of sealed packs starting from a tube of packaging material, comprising: - a track (13a, 13b); - a first element (15a, 15b), which is cyclically movable along said track (13a, 13b) and comprises, in turn, one of a sealing element or a counter-sealing element adapted to seal said pack; and - a second element (14a, 14b; 14a', 14b'), which is cyclically movable along said track (13a, 13b) and comprises, in turn, a first half-shell (21a, 21b; 21a', 21b') adapted, in use, to contact said tube so as to bound at least part of a respective said pack and control the shape of said pack during the formation thereof; characterized in that said first element (15a, 15b) and said second element (14a, 14b; 14a', 14b') are self-movable along said track (13a, 13b) independently of one another. - a track (13a, 13b); - a first element (15a, 15b), which is cyclically movable along said track (13a, 13b) and comprises, in turn, one of a sealing element or a counter-sealing element adapted to seal said pack; and - a second element (14a, 14b; 14a', 14b'), which is cyclically movable along said track (13a, 13b) and comprises, in turn, a first half-shell (21a, 21b; 21a', 21b') adapted, in use, to contact said tube so as to bound at least part of a respective said pack and control the shape of said pack during the formation thereof;
A transmitter device comprising: a housing; at least one battery housed within the housing; a cover which at least partially covers the at least one battery; and a sensor electrically coupled with the at least one battery; the transmitter device is configured to be installed in a ground surface; wherein the cover is removably coupled with the housing by a snap-fit connection such that the cover is vertically accessible for removal while the transmitter device remains installed, characterized in that: the cover includes one or more recesses or protrusions and the housing has one or more complementary protrusions or recesses for the removable coupling between the cover and the housing, and the cover includes a tab or a slot which allows disassembly of the cover from the housing, and wherein the housing includes one or more integral ribs extending towards the cover. a housing; at least one battery housed within the housing; a cover which at least partially covers the at least one battery; and a sensor electrically coupled with the at least one battery; the transmitter device is configured to be installed in a ground surface; wherein the cover is removably coupled with the housing by a snap-fit connection such that the cover is vertically accessible for removal while the transmitter device remains installed,
A power pack (18, 90) removably loadable into a compartment of a housing (4, 64) of a surgical instrument, the power pack comprising a motor (32, 83), a motor shaft, a drive mechanism (40, 80) operably connected to the motor shaft, including an engagement member (42, 82) linearly movable, the power pack further having a replaceable battery pack replaceable while the power pack is in the compartment of the surgical instrument, the battery pack being removably connectable to a contact of the power pack for powering the motor, the engagement member (42, 82) configured to removably engage an axially movable member (44, 76) in the housing of the surgical instrument, wherein actuation of the motor causes linear movement of the engagement member to effect movement of the axially movable member in an axial direction.
Appliance for recharging batteries of electric vehicles or the like, comprising: - AC/DC conversion means which can be connected at input to an alternate current power supply line (AC IN) and connected at output to a high voltage electric battery of an electric vehicle; - DC/DC conversion means connected at input to said high voltage electric battery and connected at output to a low voltage electric battery of said electric vehicle; - wherein said AC/DC conversion means and said DC/DC conversion means can be activated alternatively for recharging said high voltage electric battery and said low voltage electric battery, respectively; wherein said AC/DC conversion means and said DC/DC conversion means comprise a sole and shared DC/DC converter, characterized in that said AC/DC conversion means and said DC/DC conversion means comprise a sole and shared correction unit (PFC/STU) configured to be operated between a first mode, wherein said correction unit (PFC/STU) acts as a power factor correction circuit, and a second mode, wherein said correction unit (PFC/STU) acts as a step-up converter, wherein said appliance comprises at least a switch which can be operated between a first configuration, wherein the input of said correction unit (PFC/STU) is connected to said power supply line (AC IN), and a second configuration, wherein the input of said correction unit (PFC/STU) is connected to said high voltage electric battery, wherein said sole and shared DC/DC converter comprises an input connected to an output of said sole and shared correction unit (PFC/STU), a first output connected to said high voltage electric battery and a second output connected to said low voltage electric battery, and wherein said converter comprises selection means able to operate alternatively said first output and said second output, wherein said appliance further comprises a control unit operatively connectable to a central unit of said electric vehicle, operatively connected to said switch, to said correction unit (PFC/STU) and to said converter and configured to pilot the appliance to, alternatively, charge the high voltage electric battery and the low voltage electric battery. - AC/DC conversion means which can be connected at input to an alternate current power supply line (AC IN) and connected at output to a high voltage electric battery of an electric vehicle; - DC/DC conversion means connected at input to said high voltage electric battery and connected at output to a low voltage electric battery of said electric vehicle; - wherein said AC/DC conversion means and said DC/DC conversion means can be activated alternatively for recharging said high voltage electric battery and said low voltage electric battery, respectively;
Skew estimator for estimating a skew between an X-polarized in-phase signal, XI, an X-polarized quadrature-phase signal, XQ, of a first data path and a Y-polarized in-phase signal, YI, and a Y-polarized quadrature-phase signal, YQ, of a second data path in a coherent receiver, the skew estimator comprising: four phase detectors (801, 803, 805, 807) for detecting a respective phase of an X-polarized in-phase signal, XI, an X-polarized quadrature-phase signal, XQ, a Y-polarized in-phase signal, YI and a Y-polarized quadrature-phase signal, YQ to obtain a respective phase signal, an adder for providing a sum signal by adding said four phase signals, and one block for each data path, the respective block having: a subtractor for providing a difference signal between the sum signal and the respective phase signal provided by the respective data path, a low-pass filter for filtering the output difference signal, a determiner for determining the sign of the filtered differential signal to obtain a sign signal, ±1, and an integrator for integrating the obtained sign signal to provide the estimated skew, φ XI of the respective phase signal provided by the respective data path. a subtractor for providing a difference signal between the sum signal and the respective phase signal provided by the respective data path, a low-pass filter for filtering the output difference signal, a determiner for determining the sign of the filtered differential signal to obtain a sign signal, ±1, and an integrator for integrating the obtained sign signal to provide the estimated skew, φ XI of the respective phase signal provided by the respective data path.
A polymerization process for a cationic polymerization, wherein said polymerization process comprises the following steps: forming a polymerization system comprising the following ingredients: an initiating system consisting of an initiator, an additive, a Lewis acid and an optional diluent, said additive is selected from at least one organic compound containing nitrogen, oxygen, sulfur, or phosphor atom; wherein the Lewis acid is selected from one or more selected from the group consisting of the substances satisfying the general formula MX n, wherein M is Al, Sn, Ti, Fe, Sb or Zn; X is F, Cl or Br; n is 2, 3, 4 or 5; an aqueous reaction medium, wherein water is prominent or a reaction medium which is totally water; isoolefin monomers and optional copolymerizable monomers; and an optional dispersant; wherein step comprises firstly forming an initiating system, then mixing the resultant initiating system with isoolefin monomers, optional copolymerizable monomers, an aqueous reaction medium and an optional dispersant; polymerizing the polymerization system formed in step, to obtain a homopolymer of isoolefin monomers or a copolymer of isoolefin monomers and an optional copolymerizable monomer. forming a polymerization system comprising the following ingredients: an initiating system consisting of an initiator, an additive, a Lewis acid and an optional diluent, said additive is selected from at least one organic compound containing nitrogen, oxygen, sulfur, or phosphor atom; wherein the Lewis acid is selected from one or more selected from the group consisting of the substances satisfying the general formula MX n, wherein M is Al, Sn, Ti, Fe, Sb or Zn; X is F, Cl or Br; n is 2, 3, 4 or 5; an aqueous reaction medium, wherein water is prominent or a reaction medium which is totally water; isoolefin monomers and optional copolymerizable monomers; and an optional dispersant; wherein step comprises firstly forming an initiating system, then mixing the resultant initiating system with isoolefin monomers, optional copolymerizable monomers, an aqueous reaction medium and an optional dispersant; an initiating system consisting of an initiator, an additive, a Lewis acid and an optional diluent, said additive is selected from at least one organic compound containing nitrogen, oxygen, sulfur, or phosphor atom; wherein the Lewis acid is selected from one or more selected from the group consisting of the substances satisfying the general formula MX n, wherein M is Al, Sn, Ti, Fe, Sb or Zn; X is F, Cl or Br; n is 2, 3, 4 or 5; an aqueous reaction medium, wherein water is prominent or a reaction medium which is totally water; isoolefin monomers and optional copolymerizable monomers; and an optional dispersant; wherein step comprises firstly forming an initiating system, then mixing the resultant initiating system with isoolefin monomers, optional copolymerizable monomers, an aqueous reaction medium and an optional dispersant; polymerizing the polymerization system formed in step, to obtain a homopolymer of isoolefin monomers or a copolymer of isoolefin monomers and an optional copolymerizable monomer.
A method for exhaust air purification, preferably for exhaust air purification of a painting plant, with a first process step where exhaust air particles are hydrodynamically separated from the exhaust airflow a second process step where the exhaust airflow is exposed to light radiation, preferably UV and/or IR radiation and/or microwave energy, a third process step where the exhaust airflow is led through a magnet arrangement and subsequently through a plasma tube arrangement a fourth process step (6a, 6b) where the exhaust airflow flows through a first cyclonic gas scrubber where the exhaust airflow under light radiation, preferably under UV and/or IR radiation, comes in contact with a preferably alkaline chemical solution, and a second cyclonic gas scrubber where the exhaust airflow under light radiation, preferably under UV and/or IR radiation, comes in contact with a preferably acidic chemical solution, and a fifth process step where the exhaust airflow passes through a first catalytic chamber with distributed catalytic elements, a magnet arrangement as well as a second catalytic chamber with distributed catalytic elements. a first process step where exhaust air particles are hydrodynamically separated from the exhaust airflow a second process step where the exhaust airflow is exposed to light radiation, preferably UV and/or IR radiation and/or microwave energy, a third process step where the exhaust airflow is led through a magnet arrangement and subsequently through a plasma tube arrangement a fourth process step (6a, 6b) where the exhaust airflow flows through a first cyclonic gas scrubber where the exhaust airflow under light radiation, preferably under UV and/or IR radiation, comes in contact with a preferably alkaline chemical solution, and a second cyclonic gas scrubber where the exhaust airflow under light radiation, preferably under UV and/or IR radiation, comes in contact with a preferably acidic chemical solution, and a fifth process step where the exhaust airflow passes through a first catalytic chamber with distributed catalytic elements, a magnet arrangement as well as a second catalytic chamber with distributed catalytic elements.
A method of fabricating a light emitting diode (100, 200), comprising the steps of: forming a compound semiconductor layer (120, 130, 140, 220, 230, 240) on a substrate (110, 210), the compound semiconductor layer including a lower semiconductor layer (120, 220), an active layer (130, 230) and an upper semiconductor layer (140, 240); and scratching a surface of the substrate (110, 210) by rubbing the substrate with an abrasive, characterized in that the scratching step includes the steps of: preparing a solvent having the abrasive mixed therein in an ultrasonic cleaning apparatus; positioning the substrate (110, 210) having the compound semiconductor layer formed thereon in the solvent in the ultrasonic cleaning apparatus; and applying ultrasonic waves to the solvent in the ultrasonic cleaning apparatus to perform the scratching through activation of the abrasive by the ultrasonic waves. forming a compound semiconductor layer (120, 130, 140, 220, 230, 240) on a substrate (110, 210), the compound semiconductor layer including a lower semiconductor layer (120, 220), an active layer (130, 230) and an upper semiconductor layer (140, 240); and scratching a surface of the substrate (110, 210) by rubbing the substrate with an abrasive, characterized in that the scratching step includes the steps of: preparing a solvent having the abrasive mixed therein in an ultrasonic cleaning apparatus; positioning the substrate (110, 210) having the compound semiconductor layer formed thereon in the solvent in the ultrasonic cleaning apparatus; and applying ultrasonic waves to the solvent in the ultrasonic cleaning apparatus to perform the scratching through activation of the abrasive by the ultrasonic waves. preparing a solvent having the abrasive mixed therein in an ultrasonic cleaning apparatus; positioning the substrate (110, 210) having the compound semiconductor layer formed thereon in the solvent in the ultrasonic cleaning apparatus; and applying ultrasonic waves to the solvent in the ultrasonic cleaning apparatus to perform the scratching through activation of the abrasive by the ultrasonic waves.
Undercarriage cross member for a rail vehicle, which undercarriage cross member is constructed exclusively from aluminium extruded profiles (Q1, Q2, L1, L2), characterized in that said undercarriage cross member has a generally H-shaped structure and the H-shaped structure is formed from two transverse profiles (Q1, Q2), which are arranged parallel to one another, and two longitudinal profiles (L1, L2), wherein the transverse profiles (Q1, Q2) are each connected by their end sides to both longitudinal profiles (L1, L2), and the longitudinal profiles have attachment points for attaching the undercarriage cross member to longitudinal carriers of a wagon body.
A heat exchange unit including a tubular ceramic heater attached to a heat exchanger through which fluid flows; wherein the tubular ceramic heater is provided with: a heating pattern therein for heating a fluid, the tubular ceramic heater comprising a tubular core member provided inner than the heating pattern; and a heating cover member that has the heating pattern and covers an outer surface of the core member; wherein a container constitutes the heat exchanger; wherein the ceramic heater has a pattern watt density of 50-120 W/cm 2 and a surface watt density of 25-60 W/cm 2, the pattern watt density is 1/2 of a value of the wattage at a stationary time divided by the area of the heating pattern and the surface watt density is 1/2 of a value of the wattage at a stationary time divided by the area of a heating section where the heating pattern is formed; the capacity of the container is in a range from 15 to 25 cm 3 in the case that the volume of the ceramic heater is included, or from 10 to 20 cm 3 in the case that the volume of the ceramic heater is excluded; the heating section of the heating cover member where the heating pattern is formed is arranged inside the heat exchanger through which the fluid flows; a flow passage is provided from a through hole that axially pierces the ceramic heater to a gap on an outer peripheral side of the ceramic heater as a flow passage of the fluid in the heat exchange unit; and the size of the gap between the inner wall of the heat exchanger and an outer peripheral surface of the ceramic heater is in a range from 1 to 5 mm. a heating pattern therein for heating a fluid, the tubular ceramic heater comprising a tubular core member provided inner than the heating pattern; and a heating cover member that has the heating pattern and covers an outer surface of the core member; wherein a container constitutes the heat exchanger; wherein the ceramic heater has a pattern watt density of 50-120 W/cm 2 and a surface watt density of 25-60 W/cm 2, the pattern watt density is 1/2 of a value of the wattage at a stationary time divided by the area of the heating pattern and the surface watt density is 1/2 of a value of the wattage at a stationary time divided by the area of a heating section where the heating pattern is formed; the capacity of the container is in a range from 15 to 25 cm 3 in the case that the volume of the ceramic heater is included, or from 10 to 20 cm 3 in the case that the volume of the ceramic heater is excluded; the heating section of the heating cover member where the heating pattern is formed is arranged inside the heat exchanger through which the fluid flows; a flow passage is provided from a through hole that axially pierces the ceramic heater to a gap on an outer peripheral side of the ceramic heater as a flow passage of the fluid in the heat exchange unit; and the size of the gap between the inner wall of the heat exchanger and an outer peripheral surface of the ceramic heater is in a range from 1 to 5 mm.
An isolated peptide comprising: (i) a first fragment comprising the amino acid sequence of XWLXRALIKRIQAZI (SEQ ID NO: 1) and (ii) a second fragment comprising the amino acid sequence of RZLPQLVXRLVLRXS (SEQ ID NO: 2), wherein: (a) X is any amino acid except cysteine and at least one amino acid at the X positions is Y or F, and (b) Z is any amino acid but at least one amino acid at the Z positions is not methionine, and wherein the first fragment is at the N-terminal end of the second fragment. (i) a first fragment comprising the amino acid sequence of XWLXRALIKRIQAZI (SEQ ID NO: 1) and (ii) a second fragment comprising the amino acid sequence of RZLPQLVXRLVLRXS (SEQ ID NO: 2), (a) X is any amino acid except cysteine and at least one amino acid at the X positions is Y or F, and (b) Z is any amino acid but at least one amino acid at the Z positions is not methionine, and
An X-ray imaging apparatus comprising: - an X-ray source for emitting a beam of X-ray radiation; - an X-ray detector arranged opposite said X-ray source across an examination region for accommodating an object to be imaged; and - an interferometer arranged, at least partly in the beam of X-ray radiation during operation for performing differential phase contrast imaging and/or dark field imaging, between the X-ray source and the X-ray detector, the interferometer comprising at least one grating to modulate onto said X-ray radiation an interference pattern detectable by said X-ray detector; wherein a footprint of said at least one grating is smaller than a footprint of a radiation sensitive area of said X-ray detector; and wherein the apparatus is configured to effect, during an imaging operation, said at least one grating to move in a scanning motion across a field of view for scanning purposes relative to the X-ray detector whilst said X-ray detector remains stationary relative to the examination region. - an X-ray source for emitting a beam of X-ray radiation; - an X-ray detector arranged opposite said X-ray source across an examination region for accommodating an object to be imaged; and - an interferometer arranged, at least partly in the beam of X-ray radiation during operation for performing differential phase contrast imaging and/or dark field imaging, between the X-ray source and the X-ray detector, the interferometer comprising at least one grating to modulate onto said X-ray radiation an interference pattern detectable by said X-ray detector; wherein a footprint of said at least one grating is smaller than a footprint of a radiation sensitive area of said X-ray detector; and wherein the apparatus is configured to effect, during an imaging operation, said at least one grating to move in a scanning motion across a field of view for scanning purposes relative to the X-ray detector whilst said X-ray detector remains stationary relative to the examination region.