mhurhangee/patent-ind-claim-en huggingface dataset:
A cooling device comprising: a housing part having a first hole formed at one side thereof and a second hole formed at the other side thereof; a heat exchange part accommodated in an internal space of the housing part and having one side communicating with the first hole and the other side communicating with the second hole ; a thermoelectric element part provided above the heat exchange part ; and a radiational cooling part provided above the thermoelectric element part and at least partially exposed to the outside, wherein an upper surface of the heat exchange part is in close contact with a lower surface of the thermoelectric element part , wherein the heat exchange part comprises: recessed regions each having a recessed shape; and protruding regions each having a protruding shape, wherein the heat exchange part further comprises connection regions each configured to connect a respective recessed region and a respective protruding region , characterised in that the recessed regions and the protruding regions are disposed alternately in a direction from the first hole toward the second hole , the connection regions have flow path holes through which a fluid passes, and the flow path holes , which are provided, respectively, in the two connection regions facing each other with a respective recessed region or a respective protruding region interposed therebetween among the plurality of the connection regions , are different in height in a vertical direction from each other. a housing part having a first hole formed at one side thereof and a second hole formed at the other side thereof; a heat exchange part accommodated in an internal space of the housing part and having one side communicating with the first hole and the other side communicating with the second hole ; a thermoelectric element part provided above the heat exchange part ; and a radiational cooling part provided above the thermoelectric element part and at least partially exposed to the outside, wherein an upper surface of the heat exchange part is in close contact with a lower surface of the thermoelectric element part , wherein the heat exchange part comprises: recessed regions each having a recessed shape; and protruding regions each having a protruding shape, recessed regions each having a recessed shape; and protruding regions each having a protruding shape, wherein the heat exchange part further comprises connection regions each configured to connect a respective recessed region and a respective protruding region , characterised in that the recessed regions and the protruding regions are disposed alternately in a direction from the first hole toward the second hole , the connection regions have flow path holes through which a fluid passes, and the flow path holes , which are provided, respectively, in the two connection regions facing each other with a respective recessed region or a respective protruding region interposed therebetween among the plurality of the connection regions , are different in height in a vertical direction from each other.
A closure for a container having a neck with an external bead , which closure includes: an inner shell including an inner shell base wall having a central passage , and an annular skirt extending axially from the base wall radially outward of the central passage and having an outer surface and at least one external thread segment projecting from the outer surface; and an outer shell coupled to the inner shell and including an outer shell base wall , a plug seal extending axially from the outer shell base wall through the central passage of the inner shell base wall, and an annular outer skirt extending axially from the outer shell base wall radially outward of the plug seal and having at least one internal thread segment for threaded engagement with the at least one external thread segment of the inner shell, wherein the central passage has an inner diameter, wherein the plug seal includes an annular wall having a wall outer surface , and wherein the plug seal includes an annular seal extending radially outwardly from the annular wall and having a seal outer surface , characterised in that the wall outer surface has a diameter less than said inner diameter of the central passage and the seal outer surface has a seal outer diameter greater than said inner diameter of the central passage such that the base wall of the inner shell is axially retained between the outer shell base wall and the annular seal. an inner shell including an inner shell base wall having a central passage , and an annular skirt extending axially from the base wall radially outward of the central passage and having an outer surface and at least one external thread segment projecting from the outer surface; and an outer shell coupled to the inner shell and including an outer shell base wall , a plug seal extending axially from the outer shell base wall through the central passage of the inner shell base wall, and an annular outer skirt extending axially from the outer shell base wall radially outward of the plug seal and having at least one internal thread segment for threaded engagement with the at least one external thread segment of the inner shell, wherein the central passage has an inner diameter, wherein the plug seal includes an annular wall having a wall outer surface , and wherein the plug seal includes an annular seal extending radially outwardly from the annular wall and having a seal outer surface , characterised in that the wall outer surface has a diameter less than said inner diameter of the central passage and the seal outer surface has a seal outer diameter greater than said inner diameter of the central passage such that the base wall of the inner shell is axially retained between the outer shell base wall and the annular seal.
A jet hole plate for use in a liquid jet head , the jet hole plate comprising a metal substrate provided with a plurality of jet holes (H1 , H2), characterised in that , in the metal substrate, an average crystal grain size in outlet edges (Ea) of the jet holes is smaller than that in surrounding regions (Eb) around the outlet edges.
Connecting element for connecting a first electrical assembly to a second electrical assembly , comprising a rigid, tubular outer housing made of an electrically conductive material and an electrical cable running inside the outer housing along a longitudinal axis (L) of the outer housing , wherein the electrical cable comprises at least one inner conductor and a dielectric surrounding the at least one inner conductor , and wherein at least one segment (A) of the outer housing is reshaped along the longitudinal axis (L) in such a way that the electrical cable is fixed inside the outer housing , characterized in that the outer housing comprises a plug-in connector at the ends for connecting to a respective mating plug-in connector of an electrical assembly and the plug-in connectors are formed in that the ends of the outer housing are widened.
An indwelling catheter comprising: a hollow catheter base having a tip and a back end, the back end being able to receive and connect a male connector configured to be inserted from a back end side exterior; a tube provided at the tip of the catheter base ; a flexible hemostasis valve installed inside the catheter base ; a pusher installed at a back of the hemostasis valve ; and a pusher guide installed between the pusher and an inner wall of the catheter base , wherein the pusher has a hollow constitution, and the pusher has a taper that reduces in diameter facing a tip of the pusher and that is provided to an outer circumference surface of the pusher , the pusher guide has a constitution which is able to restrict a position of the pusher with the pusher at a first position for which the pusher does not push open the hemostasis valve , and a second position for which the taper of the pusher is positioned inside the hemostasis valve and does push open the hemostasis valve, within the catheter base , no coil spring is provided so as to move the pusher back to the first position, and the hemostatic valve is compressed inward in a radial direction by the catheter base , characterized in that the pusher guide is made of a hard material and is a separate component from the flexible hemostasis valve . a hollow catheter base having a tip and a back end, the back end being able to receive and connect a male connector configured to be inserted from a back end side exterior; a tube provided at the tip of the catheter base ; a flexible hemostasis valve installed inside the catheter base ; a pusher installed at a back of the hemostasis valve ; and a pusher guide installed between the pusher and an inner wall of the catheter base , wherein the pusher has a hollow constitution, and the pusher has a taper that reduces in diameter facing a tip of the pusher and that is provided to an outer circumference surface of the pusher , the pusher guide has a constitution which is able to restrict a position of the pusher with the pusher at a first position for which the pusher does not push open the hemostasis valve , and a second position for which the taper of the pusher is positioned inside the hemostasis valve and does push open the hemostasis valve, within the catheter base , no coil spring is provided so as to move the pusher back to the first position, and the hemostatic valve is compressed inward in a radial direction by the catheter base , characterized in that the pusher guide is made of a hard material and is a separate component from the flexible hemostasis valve .
An apparatus to produce hollow-core or solid slabs that apparatus consists of at least: a. mass feeding organ to feed mass into the apparatus, b. work space that is limited to at least certain stoppers, the hollow-core slab or solid slab and the bed to form the mentioned hollow-core or solid slab, c. in a row formation put screws (1a-1d) that have been set to rotate around their lengthwise axels to mix the mass and to move it to the space between the stoppers that form the outer limits (200.2) of the profile and the bottom and to tighten it there and as the continuation of the mentioned screws set bushes to form the hollows (200.1) in the slabs when the hollow-core slab is produced, wherein every screw (1a-1d) that are at least three have been set to rotate into the opposite direction than its neighbour screw, characterized in that the screws (1a-1d) are configured to change the rotation direction during the production process as time function. a. mass feeding organ to feed mass into the apparatus, b. work space that is limited to at least certain stoppers, the hollow-core slab or solid slab and the bed to form the mentioned hollow-core or solid slab, c. in a row formation put screws (1a-1d) that have been set to rotate around their lengthwise axels to mix the mass and to move it to the space between the stoppers that form the outer limits (200.2) of the profile and the bottom and to tighten it there and as the continuation of the mentioned screws set bushes to form the hollows (200.1) in the slabs when the hollow-core slab is produced,
A pharmaceutical composition for treating or preventing senile dementia, wherein the active ingredients of the pharmaceutical composition are prepared from raw medicinal materials consisting of 20-50 parts by weight of Epimedii Folium, 15-55 parts by weight of Poria, Poria cum Radix Pini or Polyporus and 10-55 parts by weight of Acanthopanax, Acanthopanacis cortex or Acanthopanacis folium.
A process for oxygen-tailoring a polyethylene, the process comprising: (a) conveying a first polyethylene having a melt index I 2.16 of 0.1 to 2.0 g/10 min., a high-load melt index I 21.6 of from 1.0 to 50.0 g/10 min. and an MWD ≤ 5.0 through mixing or extrusion apparatus having a feed zone, a melt-mixing zone downstream of the feed zone, and a melt zone downstream of the melt-mixing zone, wherein the temperature of the first polyethylene in the melt zone ranges from 180°C to 300°C; and (b) contacting the first polyethylene with an amount of an oxygen-containing gas having at least 20.0 parts by weight oxygen per million per parts by weight of the first polyethylene (ppm (wt) O 2 ); wherein the process provides a tailored polyethylene having a melt index within 5.0% of the melt index of the first polyethylene and a high load melt index at least 10.0% higher than the high-load melt index of the first polyethylene. (a) conveying a first polyethylene having a melt index I 2.16 of 0.1 to 2.0 g/10 min., a high-load melt index I 21.6 of from 1.0 to 50.0 g/10 min. and an MWD ≤ 5.0 through mixing or extrusion apparatus having a feed zone, a melt-mixing zone downstream of the feed zone, and a melt zone downstream of the melt-mixing zone, wherein the temperature of the first polyethylene in the melt zone ranges from 180°C to 300°C; and (b) contacting the first polyethylene with an amount of an oxygen-containing gas having at least 20.0 parts by weight oxygen per million per parts by weight of the first polyethylene (ppm (wt) O 2 );
A computing system configured to provide access to electronic content, the system comprising: a processor ; a data store coupled to the processor and configured to store the electronic content; a user interface component configured to receive an indication of an external user with which to share an item of electronic content; a link generation component configured to generate a link to share the item of electronic content; an access control component configured to: receive a request to access the item of electronic content using the link; and in response to the request, generate an access code that is communicated to a known endpoint associated with the link; wherein the user interface component is configured to receive a user input containing a user-entered access input; and wherein the access control component is configured to determine that the user-entered access input matches the access code communicated to the known endpoint associated with the link, and selectively grant access to the item of electronic content. a processor ; a data store coupled to the processor and configured to store the electronic content; a user interface component configured to receive an indication of an external user with which to share an item of electronic content; a link generation component configured to generate a link to share the item of electronic content; an access control component configured to: receive a request to access the item of electronic content using the link; and in response to the request, generate an access code that is communicated to a known endpoint associated with the link; receive a request to access the item of electronic content using the link; and in response to the request, generate an access code that is communicated to a known endpoint associated with the link; wherein the user interface component is configured to receive a user input containing a user-entered access input; and wherein the access control component is configured to determine that the user-entered access input matches the access code communicated to the known endpoint associated with the link, and selectively grant access to the item of electronic content.
Fixing arrangement for a light curtain in an elevator, said elevator comprising an elevator car with a door construction comprising at least one door panel opening and closing a passage to the elevator car , said at least one door panel being a sliding door panel , whereby an upper end of the at least one door panel is supported on a horizontally extending railing and a lower end of the at least one door panel is supported on a horizontally extending sill , said light curtain comprising a longitudinal transmitter and a longitudinal receiver facing towards each other, characterized in that the fixing arrangement comprises at least one longitudinal support device comprising a longitudinal first support member and a longitudinal second support member being attached to each other, said first support member having a cross section in the form of a letter U, said letter U forming a slot for receiving the transmitter or the receiver of the light curtain , said transmitter or receiver of the light curtain being shape locked in the slot in the first support member , whereby an upper end of the longitudinal support device is supported at the railing and a lower end of the longitudinal support device is supported at the sill .
Motor vehicle light device, notably for lighting and/or signalling, comprising: - a dielectric substrate comprising a plurality of conductive tracks, - a plurality of light-emitting diodes surface-mounted on said dielectric substrate, the light-emitting diodes being connected electrically to the conductive tracks of the dielectric substrate according to a predetermined connection plan, - at least one driver circuit for driving the light-emitting diodes, said driver circuit comprising a plurality of connection leads, and - an electrical link circuit comprising a plurality of conductive lines for electrically linking the connection leads of the driver circuit to the conductive tracks of the dielectric substrate according to a predetermined connection plan, the electrical link circuit being connected to the conductive tracks of the dielectric substrate via an anisotropic conductive film , characterized in that the dielectric substrate is mounted on a heat-sink circuit , and in that partitions are disposed between the light-emitting diodes to reflect the light emitted by the light-emitting diodes to the outside. - a dielectric substrate comprising a plurality of conductive tracks, - a plurality of light-emitting diodes surface-mounted on said dielectric substrate, the light-emitting diodes being connected electrically to the conductive tracks of the dielectric substrate according to a predetermined connection plan, - at least one driver circuit for driving the light-emitting diodes, said driver circuit comprising a plurality of connection leads, and - an electrical link circuit comprising a plurality of conductive lines for electrically linking the connection leads of the driver circuit to the conductive tracks of the dielectric substrate according to a predetermined connection plan, the electrical link circuit being connected to the conductive tracks of the dielectric substrate via an anisotropic conductive film , characterized in that the dielectric substrate is mounted on a heat-sink circuit , and in that partitions are disposed between the light-emitting diodes to reflect the light emitted by the light-emitting diodes to the outside. the electrical link circuit being connected to the conductive tracks of the dielectric substrate via an anisotropic conductive film , characterized in that the dielectric substrate is mounted on a heat-sink circuit , and in that partitions are disposed between the light-emitting diodes to reflect the light emitted by the light-emitting diodes to the outside.
A processing unit for assessing the severity of a stenosis in a vessel without administration of hyperemic agent, wherein the processing unit is connectable with at least one instrument sized and shaped for introduction into the vessel of a patient, the processing unit further configured to: obtain proximal pressure measurements for at least one cardiac cycle of the patient from the at least one instrument, the proximal pressure measurements obtained at a position proximal of the stenosis of the vessel; obtain distal pressure measurements for the at least one cardiac cycle of the patient from the at least one instrument, the distal pressure measurements obtained at a position distal of the stenosis of the vessel; define a duration of a diagnostic window within the cardiac cycle of the patient by selecting a starting point and an end point , wherein the starting point is selected based on a peak pressure of either the proximal pressure measurements or the distal pressure measurements, wherein the duration of the diagnostic window corresponds to a time period in which change in velocity is less than 25% of the maximum change in velocity during the cardiac cycle; and calculate a pressure ratio between the distal pressure measurements and the proximal pressure measurements obtained during the diagnostic window. obtain proximal pressure measurements for at least one cardiac cycle of the patient from the at least one instrument, the proximal pressure measurements obtained at a position proximal of the stenosis of the vessel; obtain distal pressure measurements for the at least one cardiac cycle of the patient from the at least one instrument, the distal pressure measurements obtained at a position distal of the stenosis of the vessel; define a duration of a diagnostic window within the cardiac cycle of the patient by selecting a starting point and an end point , wherein the starting point is selected based on a peak pressure of either the proximal pressure measurements or the distal pressure measurements, wherein the duration of the diagnostic window corresponds to a time period in which change in velocity is less than 25% of the maximum change in velocity during the cardiac cycle; and calculate a pressure ratio between the distal pressure measurements and the proximal pressure measurements obtained during the diagnostic window.
A MEMS microphone , comprising: a MEMS microphone unit , and a modulator connected downstream the MEMS microphone unit , wherein the modulator comprises a phase shifter configured to apply a defined phase shift to a signal to be modulated, wherein the modulator is configured to provide at its output a single bit per sampling period of the signal, wherein the modulator comprises a quantizer connected downstream the phase shifter , wherein the quantizer is configured to quantize a phase shifted version of the signal to be modulated provided by the phase shifter , wherein the signal to be modulated is a signal provided by the MEMS microphone unit or a signal derived therefrom, wherein the phase shifter is configured to apply a delay as the phase shift to the signal to be modulated, wherein the delay is equal to a fraction of the sampling period of the signal. a MEMS microphone unit , and a modulator connected downstream the MEMS microphone unit , wherein the modulator comprises a phase shifter configured to apply a defined phase shift to a signal to be modulated, wherein the modulator is configured to provide at its output a single bit per sampling period of the signal, wherein the modulator comprises a quantizer connected downstream the phase shifter , wherein the quantizer is configured to quantize a phase shifted version of the signal to be modulated provided by the phase shifter , wherein the signal to be modulated is a signal provided by the MEMS microphone unit or a signal derived therefrom, wherein the phase shifter is configured to apply a delay as the phase shift to the signal to be modulated, wherein the delay is equal to a fraction of the sampling period of the signal.
Solenoid valve for a fuel injection valve having a solenoid armature which has a longitudinal axis , said solenoid armature can be moved along the said longitudinal axis , and interacts with an electromagnet , the solenoid armature configuring an armature plate which is arranged opposite the electromagnet , and a residual air gap disc between the electromagnet and the armature plate preventing direct bearing of the armature plate against the electromagnet , the armature plate coming to bear with its outer edge against the residual air gap disc , and having a closing spring which loads the solenoid armature with a closing force in the direction of a valve seat , the closing spring lying on the armature plate close to its longitudinal axis , and it being possible for a throughflow cross section for a fluid to be opened or closed by way of the interaction of the solenoid armature with the valve seat , characterized in that a weakened zone is configured radially within the armature plate , which weakened zone is configured by way of a circumferential annular groove which is configured on that face of the armature plate which faces the electromagnet , and/or by way of a circumferential annular groove which is configured on that face of the armature plate which faces away from the electromagnet .