mhurhangee/patent-ind-claim-en huggingface dataset:
A pressure sensor assembly comprising: a sensor body comprising a sensing membrane disposed within the sensor body for placing a fluid in communication with the sensing membrane for purposes of determining a pressure of the fluid; and a support connected with the sensor body and comprising an opening for receiving the fluid from an external source, wherein the opening is in fluid-flow communication with the sensing membrane ; wherein the sensor body includes an internal chamber that extends within the body from an interface with the support at one end to the sensing membrane at the other end and one of the sensor body or the support comprises a channel for receiving the fluid from the opening and transferring it to the sensing membrane , and wherein the channel is configured to have a change of direction for mitigating transmission of a pressure spike to the sensing membrane , characterized in that the channel comprises at least first, second and third channel sections and the first channel section extends around the internal chamber to a first connection point with the second channel section, the second channel section has an angle of departure of between 45 and 150 degrees from the first channel section and extends around the internal chamber to a second connection point with the third channel section, and the third channel section has an angle of departure of between 45 and 150 degrees from the second channel section and extends to a connection point with the internal chamber . a sensor body comprising a sensing membrane disposed within the sensor body for placing a fluid in communication with the sensing membrane for purposes of determining a pressure of the fluid; and a support connected with the sensor body and comprising an opening for receiving the fluid from an external source, wherein the opening is in fluid-flow communication with the sensing membrane ; wherein the sensor body includes an internal chamber that extends within the body from an interface with the support at one end to the sensing membrane at the other end and one of the sensor body or the support comprises a channel for receiving the fluid from the opening and transferring it to the sensing membrane , and wherein the channel is configured to have a change of direction for mitigating transmission of a pressure spike to the sensing membrane , characterized in that the channel comprises at least first, second and third channel sections and the first channel section extends around the internal chamber to a first connection point with the second channel section, the second channel section has an angle of departure of between 45 and 150 degrees from the first channel section and extends around the internal chamber to a second connection point with the third channel section, and the third channel section has an angle of departure of between 45 and 150 degrees from the second channel section and extends to a connection point with the internal chamber .
An intermediate basket of a cannula assembly that comprises a cylindrical body portion , the intermediate basket installed in the cannula assembly and comprising: a first edge , and a second edge spaced from the first edge along a central axis; at least one rib disposed between said first edge and said second edge having a predetermined width and extending between said first and second edges , the at least one rib defined by elongate apertures that are elongate along a direction that is substantially parallel with the first and second edges ; and at least one port having an aperture extending orthogonally to said central axis. a first edge , and a second edge spaced from the first edge along a central axis; at least one rib disposed between said first edge and said second edge having a predetermined width and extending between said first and second edges , the at least one rib defined by elongate apertures that are elongate along a direction that is substantially parallel with the first and second edges ; and at least one port having an aperture extending orthogonally to said central axis.
A method of moulding a sole for footwear, comprising the steps of: - preparing polyurethane scraps, in granular form, said scraps having a breaking load greater than 10 kg/cm2, and a density greater than 130 g/l, - wetting said scraps with a polyurethane binding agent in order to obtain an agglomerate of scrap material and binding agent, - inserting the agglomerate in a mould , so that the percentage by weight of the binding agent is at least equal to 10% of the total weight of the agglomerate inserted in the mould , - closing the mould and baking the agglomerate with steam blown inside the mould , so as to obtain an increase in the molecular weight of the binding agent and the incorporation of the scraps inside a binding agent matrix, - cooling the mould and removing the moulded part. - preparing polyurethane scraps, in granular form, said scraps having a breaking load greater than 10 kg/cm2, and a density greater than 130 g/l, - wetting said scraps with a polyurethane binding agent in order to obtain an agglomerate of scrap material and binding agent, - inserting the agglomerate in a mould , so that the percentage by weight of the binding agent is at least equal to 10% of the total weight of the agglomerate inserted in the mould , - closing the mould and baking the agglomerate with steam blown inside the mould , so as to obtain an increase in the molecular weight of the binding agent and the incorporation of the scraps inside a binding agent matrix, - cooling the mould and removing the moulded part.
A service processing method, wherein the method comprises: receiving (S201), by an access network device, a connection setup message sent by user equipment, UE, wherein the connection setup message comprises first voice session indication information, and the first voice session indication information is used to indicate that the connection setup message is sent due to a Voice over Long Term Evolution, VoLTE, voice session; allocating (S202), by the access network device within a first time period that is after the access network device receives the connection setup message, an uplink transmission resource to the UE if receiving a resource scheduling request message sent by the UE; and characterized in that , the method further comprising: wherein the allocating (S202), by the access network device within a first time period that is after the access network device receives the connection setup message, an uplink transmission resource to the UE if receiving a resource scheduling request message sent by the UE, comprises: starting, by the access network device, a first timer after receiving the connection setup message, wherein timing duration of the first timer is the first time period; and allocating, by the access network device before the first timer expires, the uplink transmission resource to the UE if receiving the resource scheduling request message sent by the UE. receiving (S201), by an access network device, a connection setup message sent by user equipment, UE, wherein the connection setup message comprises first voice session indication information, and the first voice session indication information is used to indicate that the connection setup message is sent due to a Voice over Long Term Evolution, VoLTE, voice session; allocating (S202), by the access network device within a first time period that is after the access network device receives the connection setup message, an uplink transmission resource to the UE if receiving a resource scheduling request message sent by the UE; and characterized in that , the method further comprising: wherein the allocating (S202), by the access network device within a first time period that is after the access network device receives the connection setup message, an uplink transmission resource to the UE if receiving a resource scheduling request message sent by the UE, comprises: starting, by the access network device, a first timer after receiving the connection setup message, wherein timing duration of the first timer is the first time period; and allocating, by the access network device before the first timer expires, the uplink transmission resource to the UE if receiving the resource scheduling request message sent by the UE. starting, by the access network device, a first timer after receiving the connection setup message, wherein timing duration of the first timer is the first time period; and allocating, by the access network device before the first timer expires, the uplink transmission resource to the UE if receiving the resource scheduling request message sent by the UE.
An acoustic speaker including: - a metal armature , - a plastic shell fastened on the armature , the shell defining at least two openings , and - at least two loudspeakers arranged back-to-back along a transverse axis (T), the two loudspeakers respectively extending through the two openings , characterized in that : - the shell is in one piece, - the shell and an outer part of the armature are suitable for nesting in one another along a longitudinal axis (L), the outer part and the shell at least partially defining an inner volume of the acoustic speaker , - the armature comprises an inner part located between the two loudspeakers along the transverse axis (T), the shell being fastened on the inner part , and - the two loudspeakers are rigidly fastened on the inner part of the armature , and are preferably devoid of any rigid connection with the shell other than that formed by the armature . - a metal armature , - a plastic shell fastened on the armature , the shell defining at least two openings , and - at least two loudspeakers arranged back-to-back along a transverse axis (T), the two loudspeakers respectively extending through the two openings , - the shell is in one piece, - the shell and an outer part of the armature are suitable for nesting in one another along a longitudinal axis (L), the outer part and the shell at least partially defining an inner volume of the acoustic speaker , - the armature comprises an inner part located between the two loudspeakers along the transverse axis (T), the shell being fastened on the inner part , and - the two loudspeakers are rigidly fastened on the inner part of the armature , and are preferably devoid of any rigid connection with the shell other than that formed by the armature .
A splicing and termination tray, comprising a base , wherein a plurality of splice trays independent of each other are disposed on the base, each of the splice trays comprises a splice region , one or more splice slots are provided in the splice region , and one splice slot is configured to fasten one core of to-be-spliced cable; wherein the plurality of splice trays are detachably separately hinged to the base using two connection lugs disposed on a side edge of each of the splice trays ; and wherein there are an even number of splice trays , every two splice trays overlap each other and form a splice tray group , and when a quantity of the splice tray groups is greater than or equal to 2, the splice tray groups are disposed in a staggered manner; wherein a plurality of first bump groups are fastened on an upper surface of the base , each first bump group is correspondingly connected to one splice tray group , each first bump group comprises two first bumps disposed opposite to each other, and the two connection lugs are hinged to the two first bumps respectively by using a first hinged structure ; and wherein the two connection lugs are each made of an elastic material, the first hinged structure comprises a first rotating shaft and a first hinged hole , one first rotating shaft is disposed on each of the two connection lugs , the first rotating shafts on the two connection lugs are located on a same axis, a first hinged hole corresponding to the first rotating shaft is disposed on the first bump , and the first rotating shaft passes through the first hinged hole . wherein the plurality of splice trays are detachably separately hinged to the base using two connection lugs disposed on a side edge of each of the splice trays ; and wherein there are an even number of splice trays , every two splice trays overlap each other and form a splice tray group , and when a quantity of the splice tray groups is greater than or equal to 2, the splice tray groups are disposed in a staggered manner; wherein a plurality of first bump groups are fastened on an upper surface of the base , each first bump group is correspondingly connected to one splice tray group , each first bump group comprises two first bumps disposed opposite to each other, and the two connection lugs are hinged to the two first bumps respectively by using a first hinged structure ; and wherein the two connection lugs are each made of an elastic material, the first hinged structure comprises a first rotating shaft and a first hinged hole , one first rotating shaft is disposed on each of the two connection lugs , the first rotating shafts on the two connection lugs are located on a same axis, a first hinged hole corresponding to the first rotating shaft is disposed on the first bump , and the first rotating shaft passes through the first hinged hole .
An animal monitor for animals having gaits, the monitor comprising: a microcontroller; at least one three-axis accelerometer, in communication with the microcontroller, the at least one three-axis accelerometer providing data to the microcontroller; an energy source for powering the monitor; a charger for charging the energy source; a communications system, associated with the microcontroller, the communications system including a wireless transmitter and receiver; and attachment means for attaching the animal monitor to an animal, wherein the microcontroller is programmed to analyse the data from the at least one three-axis accelerometer to calculate information on the animal with the animal monitor attached, and wherein the information includes at least the mass of the animal, calculated using the formula m = K 2 ⋅ π ⋅ f 2 where K is a coefficient of the matrix of stiffness for the three degree of freedom , and f is a frequency of the acceleration of the body during locomotion. a microcontroller; at least one three-axis accelerometer, in communication with the microcontroller, the at least one three-axis accelerometer providing data to the microcontroller; an energy source for powering the monitor; a charger for charging the energy source; a communications system, associated with the microcontroller, the communications system including a wireless transmitter and receiver; and attachment means for attaching the animal monitor to an animal, wherein the microcontroller is programmed to analyse the data from the at least one three-axis accelerometer to calculate information on the animal with the animal monitor attached, and wherein the information includes at least the mass of the animal, calculated using the formula m = K 2 ⋅ π ⋅ f 2 where K is a coefficient of the matrix of stiffness for the three degree of freedom , and f is a frequency of the acceleration of the body during locomotion.
A thermal interface device , comprising: a containment structure having at least one wall , wherein the containment structure is configured to facilitate passage of heat from a heat source and/or a heat dissipater; and a thermal conductor disposed in at least a portion of the containment structure , wherein the thermal conductor is configured to reversibly switch between a solid state and a liquid state, and wherein the thermal interface device is a re-workable device, characterized in comprising one or more conforming components operatively coupled to the containment structure , that are elevated with respect to a surface of the containment structure , and configured to expand and contract to accommodate volume displacement from the heat source and/or the heat dissipater. a containment structure having at least one wall , wherein the containment structure is configured to facilitate passage of heat from a heat source and/or a heat dissipater; and a thermal conductor disposed in at least a portion of the containment structure , wherein the thermal conductor is configured to reversibly switch between a solid state and a liquid state, and wherein the thermal interface device is a re-workable device, characterized in comprising one or more conforming components operatively coupled to the containment structure , that are elevated with respect to a surface of the containment structure , and configured to expand and contract to accommodate volume displacement from the heat source and/or the heat dissipater.
A pneumatic tire comprising: a sidewall portion comprising an outer surface provided with a plurality of protruding portions protruding outwardly in a tire axial direction and arranged in a tire circumferential direction; each of the protruding portions comprising a pair of side surfaces extending in a tire radial direction at both ends in a tire circumferential direction of each of the protruding portions and a top surface arranged outermost in the tire axial direction between the pair of the side surfaces ; and in at least one of the protruding portions , the top surface being provided with a plurality of grooves arranged in the tire radial direction, characterized in that a depth (d1) of a first groove of the plurality of grooves disposed on the outer side in the tire radial direction of the protruding portion is in a range of from 70% to 90% of a depth (d2) of a second groove of the plurality of grooves disposed on the inner side in the tire radial direction of the protruding portion . a sidewall portion comprising an outer surface provided with a plurality of protruding portions protruding outwardly in a tire axial direction and arranged in a tire circumferential direction; each of the protruding portions comprising a pair of side surfaces extending in a tire radial direction at both ends in a tire circumferential direction of each of the protruding portions and a top surface arranged outermost in the tire axial direction between the pair of the side surfaces ; and in at least one of the protruding portions , the top surface being provided with a plurality of grooves arranged in the tire radial direction, characterized in that a depth (d1) of a first groove of the plurality of grooves disposed on the outer side in the tire radial direction of the protruding portion is in a range of from 70% to 90% of a depth (d2) of a second groove of the plurality of grooves disposed on the inner side in the tire radial direction of the protruding portion .
An organic light emitting display device comprising: a substrate ; a thin film transistor "TFT" disposed on the substrate , the TFT including a source electrode (SE) and a drain electrode (DE); a first power line disposed in the same layer as the source electrode (SE) and the drain electrode (DE) and electrically connected to the source electrode (SE), the first power line arranged to supply a first voltage; a second power line disposed over the TFT, the second power line arranged to supply a second voltage; an auxiliary line disposed on the first power line , wherein the auxiliary line is in the same layer as the second power line , wherein the first power line is electrically connected to the auxiliary line ; an anode electrode (AND) disposed over the second power line and the auxiliary line and electrically connected to the drain electrode (DE); an organic layer (EL) disposed on the anode electrode (AND); and a cathode electrode (CAT) covering the organic layer (EL) and electrically connected to the second power line , wherein the TFT, the first power line , the second power line , the auxiliary line , the anode electrode (AND) and the organic layer (EL) are disposed in an emission area (EA) disposed adjacent to a light transmissive area (TA), wherein a projection of the second power line onto the substrate's plane overlaps with a projection of the TFT onto the substrate's plane and a projection of the anode electrode onto the substrate's plane, and wherein the projection of the anode electrode onto the substrate's plane overlaps with the projection of the TFT onto the substrate's plane. a substrate ; a thin film transistor "TFT" disposed on the substrate , the TFT including a source electrode (SE) and a drain electrode (DE); a first power line disposed in the same layer as the source electrode (SE) and the drain electrode (DE) and electrically connected to the source electrode (SE), the first power line arranged to supply a first voltage; a second power line disposed over the TFT, the second power line arranged to supply a second voltage; an auxiliary line disposed on the first power line , wherein the auxiliary line is in the same layer as the second power line , wherein the first power line is electrically connected to the auxiliary line ; an anode electrode (AND) disposed over the second power line and the auxiliary line and electrically connected to the drain electrode (DE); an organic layer (EL) disposed on the anode electrode (AND); and a cathode electrode (CAT) covering the organic layer (EL) and electrically connected to the second power line , wherein the TFT, the first power line , the second power line , the auxiliary line , the anode electrode (AND) and the organic layer (EL) are disposed in an emission area (EA) disposed adjacent to a light transmissive area (TA), wherein a projection of the second power line onto the substrate's plane overlaps with a projection of the TFT onto the substrate's plane and a projection of the anode electrode onto the substrate's plane, and wherein the projection of the anode electrode onto the substrate's plane overlaps with the projection of the TFT onto the substrate's plane.